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gerrit-public.fairphone.software / fp2-dev / platform / hardware / qcom / camera / 4ebb9102c87d3c3fb78485343f1e00ba43f9aad2 / . / QualcommCameraHardware.cpp
blob: 0c152be2c3d6341feb9ed7698a21e9755b25f70c [file] [log] [blame]
/*
** Copyright 2008, Google Inc.
** Copyright (c) 2009-2010 Code Aurora Forum. All rights reserved.
**
** Licensed under the Apache License, Version 2.0 (the "License");
** you may not use this file except in compliance with the License.
** You may obtain a copy of the License at
**
** http://www.apache.org/licenses/LICENSE-2.0
**
** Unless required by applicable law or agreed to in writing, software
** distributed under the License is distributed on an "AS IS" BASIS,
** WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
** See the License for the specific language governing permissions and
** limitations under the License.
*/
//#define LOG_NDEBUG 0
#define LOG_NIDEBUG 0
#define LOG_TAG "QualcommCameraHardware"
#include <utils/Log.h>
#include "QualcommCameraHardware.h"
#include <utils/Errors.h>
#include <utils/threads.h>
#include <binder/MemoryHeapPmem.h>
#include <utils/String16.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <unistd.h>
#include <fcntl.h>
#include <cutils/properties.h>
#include <math.h>
#if HAVE_ANDROID_OS
#include <linux/android_pmem.h>
#endif
#include <linux/ioctl.h>
#include <camera/CameraParameters.h>
#include <media/mediarecorder.h>
#include "linux/msm_mdp.h"
#include <linux/fb.h>
#define LIKELY(exp) __builtin_expect(!!(exp), 1)
#define UNLIKELY(exp) __builtin_expect(!!(exp), 0)
extern "C" {
#include <fcntl.h>
#include <time.h>
#include <pthread.h>
#include <stdio.h>
#include <string.h>
#include <unistd.h>
#include <termios.h>
#include <assert.h>
#include <stdlib.h>
#include <ctype.h>
#include <signal.h>
#include <errno.h>
#include <sys/mman.h>
#include <sys/system_properties.h>
#include <sys/time.h>
#include <stdlib.h>
#include <media/msm_camera.h>
#include <camera.h>
#include <camframe.h>
#include <liveshot.h>
#include <mm-still/jpeg/jpege.h>
#include <jpeg_encoder.h>
#define DUMP_LIVESHOT_JPEG_FILE 0
#define DEFAULT_PICTURE_WIDTH 640
#define DEFAULT_PICTURE_HEIGHT 480
#define THUMBNAIL_BUFFER_SIZE (THUMBNAIL_WIDTH * THUMBNAIL_HEIGHT * 3/2)
#define MAX_ZOOM_LEVEL 5
#define NOT_FOUND -1
// Number of video buffers held by kernal (initially 1,2 &3)
#define ACTIVE_VIDEO_BUFFERS 3
#define PAD_TO_2K(x) (((x)+2047)& ~2047)
#if DLOPEN_LIBMMCAMERA
#include <dlfcn.h>
void* (*LINK_cam_conf)(void *data);
void* (*LINK_cam_frame)(void *data);
bool (*LINK_jpeg_encoder_init)();
void (*LINK_jpeg_encoder_join)();
bool (*LINK_jpeg_encoder_encode)(const cam_ctrl_dimension_t *dimen,
const uint8_t *thumbnailbuf, int thumbnailfd,
const uint8_t *snapshotbuf, int snapshotfd,
common_crop_t *scaling_parms, exif_tags_info_t *exif_data,
int exif_table_numEntries, int jpegPadding, const int32_t cbcroffset);
void (*LINK_camframe_terminate)(void);
//for 720p
// Function to add a video buffer to free Q
void (*LINK_camframe_free_video)(struct msm_frame *frame);
// Function pointer , called by camframe when a video frame is available.
void (**LINK_camframe_video_callback)(struct msm_frame * frame);
// To flush free Q in cam frame.
void (*LINK_cam_frame_flush_free_video)(void);
int8_t (*LINK_jpeg_encoder_setMainImageQuality)(uint32_t quality);
int8_t (*LINK_jpeg_encoder_setThumbnailQuality)(uint32_t quality);
int8_t (*LINK_jpeg_encoder_setRotation)(uint32_t rotation);
int8_t (*LINK_jpeg_encoder_get_buffer_offset)(uint32_t width, uint32_t height,
uint32_t* p_y_offset,
uint32_t* p_cbcr_offset,
uint32_t* p_buf_size);
int8_t (*LINK_jpeg_encoder_setLocation)(const camera_position_type *location);
const struct camera_size_type *(*LINK_default_sensor_get_snapshot_sizes)(int *len);
int (*LINK_launch_cam_conf_thread)(void);
int (*LINK_release_cam_conf_thread)(void);
mm_camera_status_t (*LINK_mm_camera_init)(mm_camera_config *, mm_camera_notify*, mm_camera_ops*);
mm_camera_status_t (*LINK_mm_camera_deinit)(mm_camera_config *, mm_camera_notify*, mm_camera_ops*);
int8_t (*LINK_zoom_crop_upscale)(uint32_t width, uint32_t height,
uint32_t cropped_width, uint32_t cropped_height, uint8_t *img_buf);
// callbacks
void (**LINK_mmcamera_camframe_callback)(struct msm_frame *frame);
void (**LINK_mmcamera_camstats_callback)(camstats_type stype, camera_preview_histogram_info* histinfo);
void (**LINK_mmcamera_jpegfragment_callback)(uint8_t *buff_ptr,
uint32_t buff_size);
void (**LINK_mmcamera_jpeg_callback)(jpeg_event_t status);
void (**LINK_mmcamera_shutter_callback)(common_crop_t *crop);
void (**LINK_camframe_error_callback)(camera_error_type err);
void (**LINK_mmcamera_liveshot_callback)(liveshot_status status, uint32_t jpeg_size);
void (**LINK_cancel_liveshot)(void);
int8_t (*LINK_set_liveshot_params)(uint32_t a_width, uint32_t a_height, exif_tags_info_t *a_exif_data,
int a_exif_numEntries, uint8_t* a_out_buffer, uint32_t a_outbuffer_size);
#else
#define LINK_cam_conf cam_conf
#define LINK_cam_frame cam_frame
#define LINK_jpeg_encoder_init jpeg_encoder_init
#define LINK_jpeg_encoder_join jpeg_encoder_join
#define LINK_jpeg_encoder_encode jpeg_encoder_encode
#define LINK_camframe_terminate camframe_terminate
#define LINK_jpeg_encoder_setMainImageQuality jpeg_encoder_setMainImageQuality
#define LINK_jpeg_encoder_setThumbnailQuality jpeg_encoder_setThumbnailQuality
#define LINK_jpeg_encoder_setRotation jpeg_encoder_setRotation
#define LINK_jpeg_encoder_get_buffer_offset jpeg_encoder_get_buffer_offset
#define LINK_jpeg_encoder_setLocation jpeg_encoder_setLocation
#define LINK_default_sensor_get_snapshot_sizes default_sensor_get_snapshot_sizes
#define LINK_launch_cam_conf_thread launch_cam_conf_thread
#define LINK_release_cam_conf_thread release_cam_conf_thread
#define LINK_zoom_crop_upscale zoom_crop_upscale
#define LINK_mm_camera_init mm_camera_config_init
#define LINK_mm_camera_deinit mm_camera_config_deinit
extern void (*mmcamera_camframe_callback)(struct msm_frame *frame);
extern void (*mmcamera_camstats_callback)(camstats_type stype, camera_preview_histogram_info* histinfo);
extern void (*mmcamera_jpegfragment_callback)(uint8_t *buff_ptr,
uint32_t buff_size);
extern void (*mmcamera_jpeg_callback)(jpeg_event_t status);
extern void (*mmcamera_shutter_callback)(common_crop_t *crop);
extern void (*mmcamera_liveshot_callback)(liveshot_status status, uint32_t jpeg_size);
#define LINK_set_liveshot_params set_liveshot_params
#endif
} // extern "C"
#ifndef HAVE_CAMERA_SIZE_TYPE
struct camera_size_type {
int width;
int height;
};
#endif
typedef struct crop_info_struct {
int32_t x;
int32_t y;
int32_t w;
int32_t h;
} zoom_crop_info;
union zoomimage
{
char d[sizeof(struct mdp_blit_req_list) + sizeof(struct mdp_blit_req) * 1];
struct mdp_blit_req_list list;
} zoomImage;
//Default to VGA
#define DEFAULT_PREVIEW_WIDTH 640
#define DEFAULT_PREVIEW_HEIGHT 480
//Default FPS
#define MINIMUM_FPS 5
#define MAXIMUM_FPS 31
#define DEFAULT_FPS MAXIMUM_FPS
/*
* Modifying preview size requires modification
* in bitmasks for boardproperties
*/
static const camera_size_type preview_sizes[] = {
{ 1920, 1088 }, //1080p
{ 1280, 720 }, // 720P, reserved
{ 800, 480 }, // WVGA
{ 768, 432 },
{ 720, 480 },
{ 640, 480 }, // VGA
{ 576, 432 },
{ 480, 320 }, // HVGA
{ 384, 288 },
{ 352, 288 }, // CIF
{ 320, 240 }, // QVGA
{ 240, 160 }, // SQVGA
{ 176, 144 }, // QCIF
};
#define PREVIEW_SIZE_COUNT (sizeof(preview_sizes)/sizeof(camera_size_type))
static camera_size_type supportedPreviewSizes[PREVIEW_SIZE_COUNT];
static unsigned int previewSizeCount;
board_property boardProperties[] = {
{TARGET_MSM7625, 0x00000fff, false, false},
{TARGET_MSM7627, 0x000006ff, false, false},
{TARGET_MSM7630, 0x00000fff, true, true},
{TARGET_MSM8660, 0x00001fff, true, true},
{TARGET_QSD8250, 0x00000fff, false, false}
};
//static const camera_size_type* picture_sizes;
//static int PICTURE_SIZE_COUNT;
/* TODO
* Ideally this should be a populated by lower layers.
* But currently this is no API to do that at lower layer.
* Hence populating with default sizes for now. This needs
* to be changed once the API is supported.
*/
//sorted on column basis
static camera_size_type* picture_sizes;
static unsigned int PICTURE_SIZE_COUNT;
static const camera_size_type * picture_sizes_ptr;
static int supportedPictureSizesCount;
static liveshotState liveshot_state = LIVESHOT_DONE;
#ifdef Q12
#undef Q12
#endif
#define Q12 4096
static const target_map targetList [] = {
{ "msm7625", TARGET_MSM7625 },
{ "msm7627", TARGET_MSM7627 },
{ "qsd8250", TARGET_QSD8250 },
{ "msm7630", TARGET_MSM7630 },
{ "msm8660", TARGET_MSM8660 }
};
static targetType mCurrentTarget = TARGET_MAX;
typedef struct {
uint32_t aspect_ratio;
uint32_t width;
uint32_t height;
} thumbnail_size_type;
static thumbnail_size_type thumbnail_sizes[] = {
{ 7281, 512, 288 }, //1.777778
{ 6826, 480, 288 }, //1.666667
{ 6808, 256, 154 }, //1.662337
{ 6144, 432, 288 }, //1.5
{ 5461, 512, 384 }, //1.333333
{ 5006, 352, 288 }, //1.222222
};
#define THUMBNAIL_SIZE_COUNT (sizeof(thumbnail_sizes)/sizeof(thumbnail_size_type))
#define DEFAULT_THUMBNAIL_SETTING 2
#define THUMBNAIL_WIDTH_STR "512"
#define THUMBNAIL_HEIGHT_STR "384"
#define THUMBNAIL_SMALL_HEIGHT 144
static camera_size_type jpeg_thumbnail_sizes[] = {
{ 512, 288 },
{ 480, 288 },
{ 432, 288 },
{ 512, 384 },
{ 352, 288 },
{0,0}
};
#define JPEG_THUMBNAIL_SIZE_COUNT (sizeof(jpeg_thumbnail_sizes)/sizeof(camera_size_type))
static int attr_lookup(const str_map arr[], int len, const char *name)
{
if (name) {
for (int i = 0; i < len; i++) {
if (!strcmp(arr[i].desc, name))
return arr[i].val;
}
}
return NOT_FOUND;
}
// round to the next power of two
static inline unsigned clp2(unsigned x)
{
x = x - 1;
x = x | (x >> 1);
x = x | (x >> 2);
x = x | (x >> 4);
x = x | (x >> 8);
x = x | (x >>16);
return x + 1;
}
static int exif_table_numEntries = 0;
#define MAX_EXIF_TABLE_ENTRIES 11
exif_tags_info_t exif_data[MAX_EXIF_TABLE_ENTRIES];
static zoom_crop_info zoomCropInfo;
static void *mLastQueuedFrame = NULL;
#define RECORD_BUFFERS 9
#define RECORD_BUFFERS_8x50 8
static int kRecordBufferCount;
/* controls whether VPE is avialable for the target
* under consideration.
* 1: VPE support is available
* 0: VPE support is not available (default)
*/
static bool mVpeEnabled;
namespace android {
static const int PICTURE_FORMAT_JPEG = 1;
static const int PICTURE_FORMAT_RAW = 2;
// from aeecamera.h
static const str_map whitebalance[] = {
{ CameraParameters::WHITE_BALANCE_AUTO, CAMERA_WB_AUTO },
{ CameraParameters::WHITE_BALANCE_INCANDESCENT, CAMERA_WB_INCANDESCENT },
{ CameraParameters::WHITE_BALANCE_FLUORESCENT, CAMERA_WB_FLUORESCENT },
{ CameraParameters::WHITE_BALANCE_DAYLIGHT, CAMERA_WB_DAYLIGHT },
{ CameraParameters::WHITE_BALANCE_CLOUDY_DAYLIGHT, CAMERA_WB_CLOUDY_DAYLIGHT }
};
// from camera_effect_t. This list must match aeecamera.h
static const str_map effects[] = {
{ CameraParameters::EFFECT_NONE, CAMERA_EFFECT_OFF },
{ CameraParameters::EFFECT_MONO, CAMERA_EFFECT_MONO },
{ CameraParameters::EFFECT_NEGATIVE, CAMERA_EFFECT_NEGATIVE },
{ CameraParameters::EFFECT_SOLARIZE, CAMERA_EFFECT_SOLARIZE },
{ CameraParameters::EFFECT_SEPIA, CAMERA_EFFECT_SEPIA },
{ CameraParameters::EFFECT_POSTERIZE, CAMERA_EFFECT_POSTERIZE },
{ CameraParameters::EFFECT_WHITEBOARD, CAMERA_EFFECT_WHITEBOARD },
{ CameraParameters::EFFECT_BLACKBOARD, CAMERA_EFFECT_BLACKBOARD },
{ CameraParameters::EFFECT_AQUA, CAMERA_EFFECT_AQUA }
};
// from qcamera/common/camera.h
static const str_map autoexposure[] = {
{ CameraParameters::AUTO_EXPOSURE_FRAME_AVG, CAMERA_AEC_FRAME_AVERAGE },
{ CameraParameters::AUTO_EXPOSURE_CENTER_WEIGHTED, CAMERA_AEC_CENTER_WEIGHTED },
{ CameraParameters::AUTO_EXPOSURE_SPOT_METERING, CAMERA_AEC_SPOT_METERING }
};
// from qcamera/common/camera.h
static const str_map antibanding[] = {
{ CameraParameters::ANTIBANDING_OFF, CAMERA_ANTIBANDING_OFF },
{ CameraParameters::ANTIBANDING_50HZ, CAMERA_ANTIBANDING_50HZ },
{ CameraParameters::ANTIBANDING_60HZ, CAMERA_ANTIBANDING_60HZ },
{ CameraParameters::ANTIBANDING_AUTO, CAMERA_ANTIBANDING_AUTO }
};
/* Mapping from MCC to antibanding type */
struct country_map {
uint32_t country_code;
camera_antibanding_type type;
};
static struct country_map country_numeric[] = {
{ 202, CAMERA_ANTIBANDING_50HZ }, // Greece
{ 204, CAMERA_ANTIBANDING_50HZ }, // Netherlands
{ 206, CAMERA_ANTIBANDING_50HZ }, // Belgium
{ 208, CAMERA_ANTIBANDING_50HZ }, // France
{ 212, CAMERA_ANTIBANDING_50HZ }, // Monaco
{ 213, CAMERA_ANTIBANDING_50HZ }, // Andorra
{ 214, CAMERA_ANTIBANDING_50HZ }, // Spain
{ 216, CAMERA_ANTIBANDING_50HZ }, // Hungary
{ 219, CAMERA_ANTIBANDING_50HZ }, // Croatia
{ 220, CAMERA_ANTIBANDING_50HZ }, // Serbia
{ 222, CAMERA_ANTIBANDING_50HZ }, // Italy
{ 226, CAMERA_ANTIBANDING_50HZ }, // Romania
{ 228, CAMERA_ANTIBANDING_50HZ }, // Switzerland
{ 230, CAMERA_ANTIBANDING_50HZ }, // Czech Republic
{ 231, CAMERA_ANTIBANDING_50HZ }, // Slovakia
{ 232, CAMERA_ANTIBANDING_50HZ }, // Austria
{ 234, CAMERA_ANTIBANDING_50HZ }, // United Kingdom
{ 235, CAMERA_ANTIBANDING_50HZ }, // United Kingdom
{ 238, CAMERA_ANTIBANDING_50HZ }, // Denmark
{ 240, CAMERA_ANTIBANDING_50HZ }, // Sweden
{ 242, CAMERA_ANTIBANDING_50HZ }, // Norway
{ 244, CAMERA_ANTIBANDING_50HZ }, // Finland
{ 246, CAMERA_ANTIBANDING_50HZ }, // Lithuania
{ 247, CAMERA_ANTIBANDING_50HZ }, // Latvia
{ 248, CAMERA_ANTIBANDING_50HZ }, // Estonia
{ 250, CAMERA_ANTIBANDING_50HZ }, // Russian Federation
{ 255, CAMERA_ANTIBANDING_50HZ }, // Ukraine
{ 257, CAMERA_ANTIBANDING_50HZ }, // Belarus
{ 259, CAMERA_ANTIBANDING_50HZ }, // Moldova
{ 260, CAMERA_ANTIBANDING_50HZ }, // Poland
{ 262, CAMERA_ANTIBANDING_50HZ }, // Germany
{ 266, CAMERA_ANTIBANDING_50HZ }, // Gibraltar
{ 268, CAMERA_ANTIBANDING_50HZ }, // Portugal
{ 270, CAMERA_ANTIBANDING_50HZ }, // Luxembourg
{ 272, CAMERA_ANTIBANDING_50HZ }, // Ireland
{ 274, CAMERA_ANTIBANDING_50HZ }, // Iceland
{ 276, CAMERA_ANTIBANDING_50HZ }, // Albania
{ 278, CAMERA_ANTIBANDING_50HZ }, // Malta
{ 280, CAMERA_ANTIBANDING_50HZ }, // Cyprus
{ 282, CAMERA_ANTIBANDING_50HZ }, // Georgia
{ 283, CAMERA_ANTIBANDING_50HZ }, // Armenia
{ 284, CAMERA_ANTIBANDING_50HZ }, // Bulgaria
{ 286, CAMERA_ANTIBANDING_50HZ }, // Turkey
{ 288, CAMERA_ANTIBANDING_50HZ }, // Faroe Islands
{ 290, CAMERA_ANTIBANDING_50HZ }, // Greenland
{ 293, CAMERA_ANTIBANDING_50HZ }, // Slovenia
{ 294, CAMERA_ANTIBANDING_50HZ }, // Macedonia
{ 295, CAMERA_ANTIBANDING_50HZ }, // Liechtenstein
{ 297, CAMERA_ANTIBANDING_50HZ }, // Montenegro
{ 302, CAMERA_ANTIBANDING_60HZ }, // Canada
{ 310, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 311, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 312, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 313, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 314, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 315, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 316, CAMERA_ANTIBANDING_60HZ }, // United States of America
{ 330, CAMERA_ANTIBANDING_60HZ }, // Puerto Rico
{ 334, CAMERA_ANTIBANDING_60HZ }, // Mexico
{ 338, CAMERA_ANTIBANDING_50HZ }, // Jamaica
{ 340, CAMERA_ANTIBANDING_50HZ }, // Martinique
{ 342, CAMERA_ANTIBANDING_50HZ }, // Barbados
{ 346, CAMERA_ANTIBANDING_60HZ }, // Cayman Islands
{ 350, CAMERA_ANTIBANDING_60HZ }, // Bermuda
{ 352, CAMERA_ANTIBANDING_50HZ }, // Grenada
{ 354, CAMERA_ANTIBANDING_60HZ }, // Montserrat
{ 362, CAMERA_ANTIBANDING_50HZ }, // Netherlands Antilles
{ 363, CAMERA_ANTIBANDING_60HZ }, // Aruba
{ 364, CAMERA_ANTIBANDING_60HZ }, // Bahamas
{ 365, CAMERA_ANTIBANDING_60HZ }, // Anguilla
{ 366, CAMERA_ANTIBANDING_50HZ }, // Dominica
{ 368, CAMERA_ANTIBANDING_60HZ }, // Cuba
{ 370, CAMERA_ANTIBANDING_60HZ }, // Dominican Republic
{ 372, CAMERA_ANTIBANDING_60HZ }, // Haiti
{ 401, CAMERA_ANTIBANDING_50HZ }, // Kazakhstan
{ 402, CAMERA_ANTIBANDING_50HZ }, // Bhutan
{ 404, CAMERA_ANTIBANDING_50HZ }, // India
{ 405, CAMERA_ANTIBANDING_50HZ }, // India
{ 410, CAMERA_ANTIBANDING_50HZ }, // Pakistan
{ 413, CAMERA_ANTIBANDING_50HZ }, // Sri Lanka
{ 414, CAMERA_ANTIBANDING_50HZ }, // Myanmar
{ 415, CAMERA_ANTIBANDING_50HZ }, // Lebanon
{ 416, CAMERA_ANTIBANDING_50HZ }, // Jordan
{ 417, CAMERA_ANTIBANDING_50HZ }, // Syria
{ 418, CAMERA_ANTIBANDING_50HZ }, // Iraq
{ 419, CAMERA_ANTIBANDING_50HZ }, // Kuwait
{ 420, CAMERA_ANTIBANDING_60HZ }, // Saudi Arabia
{ 421, CAMERA_ANTIBANDING_50HZ }, // Yemen
{ 422, CAMERA_ANTIBANDING_50HZ }, // Oman
{ 424, CAMERA_ANTIBANDING_50HZ }, // United Arab Emirates
{ 425, CAMERA_ANTIBANDING_50HZ }, // Israel
{ 426, CAMERA_ANTIBANDING_50HZ }, // Bahrain
{ 427, CAMERA_ANTIBANDING_50HZ }, // Qatar
{ 428, CAMERA_ANTIBANDING_50HZ }, // Mongolia
{ 429, CAMERA_ANTIBANDING_50HZ }, // Nepal
{ 430, CAMERA_ANTIBANDING_50HZ }, // United Arab Emirates
{ 431, CAMERA_ANTIBANDING_50HZ }, // United Arab Emirates
{ 432, CAMERA_ANTIBANDING_50HZ }, // Iran
{ 434, CAMERA_ANTIBANDING_50HZ }, // Uzbekistan
{ 436, CAMERA_ANTIBANDING_50HZ }, // Tajikistan
{ 437, CAMERA_ANTIBANDING_50HZ }, // Kyrgyz Rep
{ 438, CAMERA_ANTIBANDING_50HZ }, // Turkmenistan
{ 440, CAMERA_ANTIBANDING_60HZ }, // Japan
{ 441, CAMERA_ANTIBANDING_60HZ }, // Japan
{ 452, CAMERA_ANTIBANDING_50HZ }, // Vietnam
{ 454, CAMERA_ANTIBANDING_50HZ }, // Hong Kong
{ 455, CAMERA_ANTIBANDING_50HZ }, // Macao
{ 456, CAMERA_ANTIBANDING_50HZ }, // Cambodia
{ 457, CAMERA_ANTIBANDING_50HZ }, // Laos
{ 460, CAMERA_ANTIBANDING_50HZ }, // China
{ 466, CAMERA_ANTIBANDING_60HZ }, // Taiwan
{ 470, CAMERA_ANTIBANDING_50HZ }, // Bangladesh
{ 472, CAMERA_ANTIBANDING_50HZ }, // Maldives
{ 502, CAMERA_ANTIBANDING_50HZ }, // Malaysia
{ 505, CAMERA_ANTIBANDING_50HZ }, // Australia
{ 510, CAMERA_ANTIBANDING_50HZ }, // Indonesia
{ 514, CAMERA_ANTIBANDING_50HZ }, // East Timor
{ 515, CAMERA_ANTIBANDING_60HZ }, // Philippines
{ 520, CAMERA_ANTIBANDING_50HZ }, // Thailand
{ 525, CAMERA_ANTIBANDING_50HZ }, // Singapore
{ 530, CAMERA_ANTIBANDING_50HZ }, // New Zealand
{ 535, CAMERA_ANTIBANDING_60HZ }, // Guam
{ 536, CAMERA_ANTIBANDING_50HZ }, // Nauru
{ 537, CAMERA_ANTIBANDING_50HZ }, // Papua New Guinea
{ 539, CAMERA_ANTIBANDING_50HZ }, // Tonga
{ 541, CAMERA_ANTIBANDING_50HZ }, // Vanuatu
{ 542, CAMERA_ANTIBANDING_50HZ }, // Fiji
{ 544, CAMERA_ANTIBANDING_60HZ }, // American Samoa
{ 545, CAMERA_ANTIBANDING_50HZ }, // Kiribati
{ 546, CAMERA_ANTIBANDING_50HZ }, // New Caledonia
{ 548, CAMERA_ANTIBANDING_50HZ }, // Cook Islands
{ 602, CAMERA_ANTIBANDING_50HZ }, // Egypt
{ 603, CAMERA_ANTIBANDING_50HZ }, // Algeria
{ 604, CAMERA_ANTIBANDING_50HZ }, // Morocco
{ 605, CAMERA_ANTIBANDING_50HZ }, // Tunisia
{ 606, CAMERA_ANTIBANDING_50HZ }, // Libya
{ 607, CAMERA_ANTIBANDING_50HZ }, // Gambia
{ 608, CAMERA_ANTIBANDING_50HZ }, // Senegal
{ 609, CAMERA_ANTIBANDING_50HZ }, // Mauritania
{ 610, CAMERA_ANTIBANDING_50HZ }, // Mali
{ 611, CAMERA_ANTIBANDING_50HZ }, // Guinea
{ 613, CAMERA_ANTIBANDING_50HZ }, // Burkina Faso
{ 614, CAMERA_ANTIBANDING_50HZ }, // Niger
{ 616, CAMERA_ANTIBANDING_50HZ }, // Benin
{ 617, CAMERA_ANTIBANDING_50HZ }, // Mauritius
{ 618, CAMERA_ANTIBANDING_50HZ }, // Liberia
{ 619, CAMERA_ANTIBANDING_50HZ }, // Sierra Leone
{ 620, CAMERA_ANTIBANDING_50HZ }, // Ghana
{ 621, CAMERA_ANTIBANDING_50HZ }, // Nigeria
{ 622, CAMERA_ANTIBANDING_50HZ }, // Chad
{ 623, CAMERA_ANTIBANDING_50HZ }, // Central African Republic
{ 624, CAMERA_ANTIBANDING_50HZ }, // Cameroon
{ 625, CAMERA_ANTIBANDING_50HZ }, // Cape Verde
{ 627, CAMERA_ANTIBANDING_50HZ }, // Equatorial Guinea
{ 631, CAMERA_ANTIBANDING_50HZ }, // Angola
{ 633, CAMERA_ANTIBANDING_50HZ }, // Seychelles
{ 634, CAMERA_ANTIBANDING_50HZ }, // Sudan
{ 636, CAMERA_ANTIBANDING_50HZ }, // Ethiopia
{ 637, CAMERA_ANTIBANDING_50HZ }, // Somalia
{ 638, CAMERA_ANTIBANDING_50HZ }, // Djibouti
{ 639, CAMERA_ANTIBANDING_50HZ }, // Kenya
{ 640, CAMERA_ANTIBANDING_50HZ }, // Tanzania
{ 641, CAMERA_ANTIBANDING_50HZ }, // Uganda
{ 642, CAMERA_ANTIBANDING_50HZ }, // Burundi
{ 643, CAMERA_ANTIBANDING_50HZ }, // Mozambique
{ 645, CAMERA_ANTIBANDING_50HZ }, // Zambia
{ 646, CAMERA_ANTIBANDING_50HZ }, // Madagascar
{ 647, CAMERA_ANTIBANDING_50HZ }, // France
{ 648, CAMERA_ANTIBANDING_50HZ }, // Zimbabwe
{ 649, CAMERA_ANTIBANDING_50HZ }, // Namibia
{ 650, CAMERA_ANTIBANDING_50HZ }, // Malawi
{ 651, CAMERA_ANTIBANDING_50HZ }, // Lesotho
{ 652, CAMERA_ANTIBANDING_50HZ }, // Botswana
{ 653, CAMERA_ANTIBANDING_50HZ }, // Swaziland
{ 654, CAMERA_ANTIBANDING_50HZ }, // Comoros
{ 655, CAMERA_ANTIBANDING_50HZ }, // South Africa
{ 657, CAMERA_ANTIBANDING_50HZ }, // Eritrea
{ 702, CAMERA_ANTIBANDING_60HZ }, // Belize
{ 704, CAMERA_ANTIBANDING_60HZ }, // Guatemala
{ 706, CAMERA_ANTIBANDING_60HZ }, // El Salvador
{ 708, CAMERA_ANTIBANDING_60HZ }, // Honduras
{ 710, CAMERA_ANTIBANDING_60HZ }, // Nicaragua
{ 712, CAMERA_ANTIBANDING_60HZ }, // Costa Rica
{ 714, CAMERA_ANTIBANDING_60HZ }, // Panama
{ 722, CAMERA_ANTIBANDING_50HZ }, // Argentina
{ 724, CAMERA_ANTIBANDING_60HZ }, // Brazil
{ 730, CAMERA_ANTIBANDING_50HZ }, // Chile
{ 732, CAMERA_ANTIBANDING_60HZ }, // Colombia
{ 734, CAMERA_ANTIBANDING_60HZ }, // Venezuela
{ 736, CAMERA_ANTIBANDING_50HZ }, // Bolivia
{ 738, CAMERA_ANTIBANDING_60HZ }, // Guyana
{ 740, CAMERA_ANTIBANDING_60HZ }, // Ecuador
{ 742, CAMERA_ANTIBANDING_50HZ }, // French Guiana
{ 744, CAMERA_ANTIBANDING_50HZ }, // Paraguay
{ 746, CAMERA_ANTIBANDING_60HZ }, // Suriname
{ 748, CAMERA_ANTIBANDING_50HZ }, // Uruguay
{ 750, CAMERA_ANTIBANDING_50HZ }, // Falkland Islands
};
static const str_map scenemode[] = {
{ CameraParameters::SCENE_MODE_AUTO, CAMERA_BESTSHOT_OFF },
{ CameraParameters::SCENE_MODE_ACTION, CAMERA_BESTSHOT_ACTION },
{ CameraParameters::SCENE_MODE_PORTRAIT, CAMERA_BESTSHOT_PORTRAIT },
{ CameraParameters::SCENE_MODE_LANDSCAPE, CAMERA_BESTSHOT_LANDSCAPE },
{ CameraParameters::SCENE_MODE_NIGHT, CAMERA_BESTSHOT_NIGHT },
{ CameraParameters::SCENE_MODE_NIGHT_PORTRAIT, CAMERA_BESTSHOT_NIGHT_PORTRAIT },
{ CameraParameters::SCENE_MODE_THEATRE, CAMERA_BESTSHOT_THEATRE },
{ CameraParameters::SCENE_MODE_BEACH, CAMERA_BESTSHOT_BEACH },
{ CameraParameters::SCENE_MODE_SNOW, CAMERA_BESTSHOT_SNOW },
{ CameraParameters::SCENE_MODE_SUNSET, CAMERA_BESTSHOT_SUNSET },
{ CameraParameters::SCENE_MODE_STEADYPHOTO, CAMERA_BESTSHOT_ANTISHAKE },
{ CameraParameters::SCENE_MODE_FIREWORKS , CAMERA_BESTSHOT_FIREWORKS },
{ CameraParameters::SCENE_MODE_SPORTS , CAMERA_BESTSHOT_SPORTS },
{ CameraParameters::SCENE_MODE_PARTY, CAMERA_BESTSHOT_PARTY },
{ CameraParameters::SCENE_MODE_CANDLELIGHT, CAMERA_BESTSHOT_CANDLELIGHT },
{ CameraParameters::SCENE_MODE_BACKLIGHT, CAMERA_BESTSHOT_BACKLIGHT },
{ CameraParameters::SCENE_MODE_FLOWERS, CAMERA_BESTSHOT_FLOWERS },
};
static const str_map scenedetect[] = {
{ CameraParameters::SCENE_DETECT_OFF, FALSE },
{ CameraParameters::SCENE_DETECT_ON, TRUE },
};
#define country_number (sizeof(country_numeric) / sizeof(country_map))
/* TODO : setting dummy values as of now, need to query for correct
* values from sensor in future
*/
#define CAMERA_FOCAL_LENGTH_DEFAULT 4.31
#define CAMERA_HORIZONTAL_VIEW_ANGLE_DEFAULT 54.8
#define CAMERA_VERTICAL_VIEW_ANGLE_DEFAULT 42.5
/* Look up pre-sorted antibanding_type table by current MCC. */
static camera_antibanding_type camera_get_location(void) {
char value[PROP_VALUE_MAX];
char country_value[PROP_VALUE_MAX];
uint32_t country_code, count;
memset(value, 0x00, sizeof(value));
memset(country_value, 0x00, sizeof(country_value));
if (!__system_property_get("gsm.operator.numeric", value)) {
return CAMERA_ANTIBANDING_60HZ;
}
memcpy(country_value, value, 3);
country_code = atoi(country_value);
LOGD("value:%s, country value:%s, country code:%d\n",
value, country_value, country_code);
int left = 0;
int right = country_number - 1;
while (left <= right) {
int index = (left + right) >> 1;
if (country_numeric[index].country_code == country_code)
return country_numeric[index].type;
else if (country_numeric[index].country_code > country_code)
right = index - 1;
else
left = index + 1;
}
return CAMERA_ANTIBANDING_60HZ;
}
// from camera.h, led_mode_t
static const str_map flash[] = {
{ CameraParameters::FLASH_MODE_OFF, LED_MODE_OFF },
{ CameraParameters::FLASH_MODE_AUTO, LED_MODE_AUTO },
{ CameraParameters::FLASH_MODE_ON, LED_MODE_ON },
{ CameraParameters::FLASH_MODE_TORCH, LED_MODE_TORCH}
};
// from mm-camera/common/camera.h.
static const str_map iso[] = {
{ CameraParameters::ISO_AUTO, CAMERA_ISO_AUTO},
{ CameraParameters::ISO_HJR, CAMERA_ISO_DEBLUR},
{ CameraParameters::ISO_100, CAMERA_ISO_100},
{ CameraParameters::ISO_200, CAMERA_ISO_200},
{ CameraParameters::ISO_400, CAMERA_ISO_400},
{ CameraParameters::ISO_800, CAMERA_ISO_800 },
{ CameraParameters::ISO_1600, CAMERA_ISO_1600 }
};
#define DONT_CARE 0
static const str_map focus_modes[] = {
{ CameraParameters::FOCUS_MODE_AUTO, AF_MODE_AUTO},
{ CameraParameters::FOCUS_MODE_INFINITY, DONT_CARE },
{ CameraParameters::FOCUS_MODE_NORMAL, AF_MODE_NORMAL },
{ CameraParameters::FOCUS_MODE_MACRO, AF_MODE_MACRO }
};
static const str_map lensshade[] = {
{ CameraParameters::LENSSHADE_ENABLE, TRUE },
{ CameraParameters::LENSSHADE_DISABLE, FALSE }
};
static const str_map histogram[] = {
{ CameraParameters::HISTOGRAM_ENABLE, TRUE },
{ CameraParameters::HISTOGRAM_DISABLE, FALSE }
};
static const str_map skinToneEnhancement[] = {
{ CameraParameters::SKIN_TONE_ENHANCEMENT_ENABLE, TRUE },
{ CameraParameters::SKIN_TONE_ENHANCEMENT_DISABLE, FALSE }
};
static const str_map continuous_af[] = {
{ CameraParameters::CONTINUOUS_AF_OFF, FALSE },
{ CameraParameters::CONTINUOUS_AF_ON, TRUE }
};
static const str_map selectable_zone_af[] = {
{ CameraParameters::SELECTABLE_ZONE_AF_AUTO, AUTO },
{ CameraParameters::SELECTABLE_ZONE_AF_SPOT_METERING, SPOT },
{ CameraParameters::SELECTABLE_ZONE_AF_CENTER_WEIGHTED, CENTER_WEIGHTED },
{ CameraParameters::SELECTABLE_ZONE_AF_FRAME_AVERAGE, AVERAGE }
};
#define DONT_CARE_COORDINATE -1
static const str_map touchafaec[] = {
{ CameraParameters::TOUCH_AF_AEC_OFF, FALSE },
{ CameraParameters::TOUCH_AF_AEC_ON, TRUE }
};
struct SensorType {
const char *name;
int rawPictureWidth;
int rawPictureHeight;
bool hasAutoFocusSupport;
int max_supported_snapshot_width;
int max_supported_snapshot_height;
int bitMask;
};
/*
* Values based on aec.c
*/
#define CAMERA_HISTOGRAM_ENABLE 1
#define CAMERA_HISTOGRAM_DISABLE 0
#define HISTOGRAM_STATS_SIZE 257
//Dx,Dy should be same as defined in res/layout/camera.xml
#define FOCUS_RECTANGLE_DX 100
#define FOCUS_RECTANGLE_DY 100
#define EXPOSURE_COMPENSATION_MAXIMUM_NUMERATOR 12
#define EXPOSURE_COMPENSATION_MINIMUM_NUMERATOR -12
#define EXPOSURE_COMPENSATION_DEFAULT_NUMERATOR 0
#define EXPOSURE_COMPENSATION_DENOMINATOR 6
#define EXPOSURE_COMPENSATION_STEP ((float (1))/EXPOSURE_COMPENSATION_DENOMINATOR)
static SensorType sensorTypes[] = {
{ "12mp", 5464, 3120, true, 4000, 3000,0x00001fff },
{ "12mp_sn12m0pz",4032, 3024, true, 4000, 3000,0x00000fff },
{ "5mp", 2608, 1960, true, 2592, 1944,0x00000fff },
{ "3mp", 2064, 1544, false, 2048, 1536,0x000007ff },
{ "2mp", 3200, 1200, false, 1600, 1200,0x000007ff },
{ "ov7692", 640, 480, false, 640, 480, 0x000000ff } }; //Web Camera
static SensorType * sensorType;
static const str_map picture_formats[] = {
{CameraParameters::PIXEL_FORMAT_JPEG, PICTURE_FORMAT_JPEG},
{CameraParameters::PIXEL_FORMAT_RAW, PICTURE_FORMAT_RAW}
};
static const str_map frame_rate_modes[] = {
{CameraParameters::KEY_PREVIEW_FRAME_RATE_AUTO_MODE, FPS_MODE_AUTO},
{CameraParameters::KEY_PREVIEW_FRAME_RATE_FIXED_MODE, FPS_MODE_FIXED}
};
static int mPreviewFormat;
static const str_map preview_formats[] = {
{CameraParameters::PIXEL_FORMAT_YUV420SP, CAMERA_YUV_420_NV21},
{CameraParameters::PIXEL_FORMAT_YUV420SP_ADRENO, CAMERA_YUV_420_NV21_ADRENO}
};
static bool parameter_string_initialized = false;
static String8 preview_size_values;
static String8 picture_size_values;
static String8 jpeg_thumbnail_size_values;
static String8 antibanding_values;
static String8 effect_values;
static String8 autoexposure_values;
static String8 whitebalance_values;
static String8 flash_values;
static String8 focus_mode_values;
static String8 iso_values;
static String8 lensshade_values;
static String8 histogram_values;
static String8 skinToneEnhancement_values;
static String8 touchafaec_values;
static String8 picture_format_values;
static String8 scenemode_values;
static String8 continuous_af_values;
static String8 zoom_ratio_values;
static String8 preview_frame_rate_values;
static String8 frame_rate_mode_values;
static String8 scenedetect_values;
static String8 preview_format_values;
static String8 selectable_zone_af_values;
mm_camera_notify mCamNotify;
mm_camera_ops mCamOps;
static String8 create_sizes_str(const camera_size_type *sizes, int len) {
String8 str;
char buffer[32];
if (len > 0) {
sprintf(buffer, "%dx%d", sizes[0].width, sizes[0].height);
str.append(buffer);
}
for (int i = 1; i < len; i++) {
sprintf(buffer, ",%dx%d", sizes[i].width, sizes[i].height);
str.append(buffer);
}
return str;
}
static String8 create_values_str(const str_map *values, int len) {
String8 str;
if (len > 0) {
str.append(values[0].desc);
}
for (int i = 1; i < len; i++) {
str.append(",");
str.append(values[i].desc);
}
return str;
}
static String8 create_str(int16_t *arr, int length){
String8 str;
char buffer[32];
if(length > 0){
snprintf(buffer, sizeof(buffer), "%d", arr[0]);
str.append(buffer);
}
for (int i =1;i<length;i++){
snprintf(buffer, sizeof(buffer), ",%d",arr[i]);
str.append(buffer);
}
return str;
}
static String8 create_values_range_str(int min, int max){
String8 str;
char buffer[32];
if(min <= max){
snprintf(buffer, sizeof(buffer), "%d", min);
str.append(buffer);
for (int i = min + 1; i <= max; i++) {
snprintf(buffer, sizeof(buffer), ",%d", i);
str.append(buffer);
}
}
return str;
}
extern "C" {
//------------------------------------------------------------------------
// : 720p busyQ funcitons
// --------------------------------------------------------------------
static struct fifo_queue g_busy_frame_queue =
{0, 0, 0, PTHREAD_MUTEX_INITIALIZER, PTHREAD_COND_INITIALIZER};
};
/*===========================================================================
* FUNCTION cam_frame_wait_video
*
* DESCRIPTION this function waits a video in the busy queue
* ===========================================================================*/
static void cam_frame_wait_video (void)
{
LOGV("cam_frame_wait_video E ");
if ((g_busy_frame_queue.num_of_frames) <=0){
pthread_cond_wait(&(g_busy_frame_queue.wait), &(g_busy_frame_queue.mut));
}
LOGV("cam_frame_wait_video X");
return;
}
/*===========================================================================
* FUNCTION cam_frame_flush_video
*
* DESCRIPTION this function deletes all the buffers in busy queue
* ===========================================================================*/
void cam_frame_flush_video (void)
{
LOGV("cam_frame_flush_video: in n = %d\n", g_busy_frame_queue.num_of_frames);
pthread_mutex_lock(&(g_busy_frame_queue.mut));
while (g_busy_frame_queue.front)
{
//dequeue from the busy queue
struct fifo_node *node = dequeue (&g_busy_frame_queue);
if(node)
free(node);
LOGV("cam_frame_flush_video: node \n");
}
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
LOGV("cam_frame_flush_video: out n = %d\n", g_busy_frame_queue.num_of_frames);
return ;
}
/*===========================================================================
* FUNCTION cam_frame_get_video
*
* DESCRIPTION this function returns a video frame from the head
* ===========================================================================*/
static struct msm_frame * cam_frame_get_video()
{
struct msm_frame *p = NULL;
LOGV("cam_frame_get_video... in\n");
LOGV("cam_frame_get_video... got lock\n");
if (g_busy_frame_queue.front)
{
//dequeue
struct fifo_node *node = dequeue (&g_busy_frame_queue);
if (node)
{
p = (struct msm_frame *)node->f;
free (node);
}
LOGV("cam_frame_get_video... out = %x\n", p->buffer);
}
return p;
}
/*===========================================================================
* FUNCTION cam_frame_post_video
*
* DESCRIPTION this function add a busy video frame to the busy queue tails
* ===========================================================================*/
static void cam_frame_post_video (struct msm_frame *p)
{
if (!p)
{
LOGE("post video , buffer is null");
return;
}
LOGV("cam_frame_post_video... in = %x\n", (unsigned int)(p->buffer));
pthread_mutex_lock(&(g_busy_frame_queue.mut));
LOGV("post_video got lock. q count before enQ %d", g_busy_frame_queue.num_of_frames);
//enqueue to busy queue
struct fifo_node *node = (struct fifo_node *)malloc (sizeof (struct fifo_node));
if (node)
{
LOGV(" post video , enqueing in busy queue");
node->f = p;
node->next = NULL;
enqueue (&g_busy_frame_queue, node);
LOGV("post_video got lock. q count after enQ %d", g_busy_frame_queue.num_of_frames);
}
else
{
LOGE("cam_frame_post_video error... out of memory\n");
}
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
pthread_cond_signal(&(g_busy_frame_queue.wait));
LOGV("cam_frame_post_video... out = %x\n", p->buffer);
return;
}
void QualcommCameraHardware::storeTargetType(void) {
char mDeviceName[PROPERTY_VALUE_MAX];
property_get("ro.product.device",mDeviceName," ");
mCurrentTarget = TARGET_MAX;
for( int i = 0; i < TARGET_MAX ; i++) {
if( !strncmp(mDeviceName, targetList[i].targetStr, 7)) {
mCurrentTarget = targetList[i].targetEnum;
break;
}
}
LOGV(" Storing the current target type as %d ", mCurrentTarget );
return;
}
//-------------------------------------------------------------------------------------
static Mutex singleton_lock;
static bool singleton_releasing;
static nsecs_t singleton_releasing_start_time;
static const nsecs_t SINGLETON_RELEASING_WAIT_TIME = seconds_to_nanoseconds(5);
static const nsecs_t SINGLETON_RELEASING_RECHECK_TIMEOUT = seconds_to_nanoseconds(1);
static Condition singleton_wait;
static void receive_camframe_callback(struct msm_frame *frame);
static void receive_liveshot_callback(liveshot_status status, uint32_t jpeg_size);
static void receive_camstats_callback(camstats_type stype, camera_preview_histogram_info* histinfo);
static void receive_camframe_video_callback(struct msm_frame *frame); // 720p
static void receive_jpeg_fragment_callback(uint8_t *buff_ptr, uint32_t buff_size);
static void receive_jpeg_callback(jpeg_event_t status);
static void receive_shutter_callback(common_crop_t *crop);
static void receive_camframe_error_callback(camera_error_type err);
static int fb_fd = -1;
static int32_t mMaxZoom = 0;
static bool zoomSupported = false;
static int dstOffset = 0;
static int16_t * zoomRatios;
static int camerafd;
pthread_t w_thread;
void *opencamerafd(void *data) {
camerafd = open(MSM_CAMERA_CONTROL, O_RDWR);
return NULL;
}
/* When using MDP zoom, double the preview buffers. The usage of these
* buffers is as follows:
* 1. As all the buffers comes under a single FD, and at initial registration,
* this FD will be passed to surface flinger, surface flinger can have access
* to all the buffers when needed.
* 2. Only "kPreviewBufferCount" buffers (SrcSet) will be registered with the
* camera driver to receive preview frames. The remaining buffers (DstSet),
* will be used at HAL and by surface flinger only when crop information
* is present in the frame.
* 3. When there is no crop information, there will be no call to MDP zoom,
* and the buffers in SrcSet will be passed to surface flinger to display.
* 4. With crop information present, MDP zoom will be called, and the final
* data will be placed in a buffer from DstSet, and this buffer will be given
* to surface flinger to display.
*/
#define NUM_MORE_BUFS 2
QualcommCameraHardware::QualcommCameraHardware()
: mParameters(),
mCameraRunning(false),
mPreviewInitialized(false),
mFrameThreadRunning(false),
mVideoThreadRunning(false),
mSnapshotThreadRunning(false),
mEncodePending(false),
mJpegThreadRunning(false),
mInSnapshotMode(false),
mSnapshotFormat(0),
mFirstFrame(true),
mReleasedRecordingFrame(false),
mPreviewFrameSize(0),
mRawSize(0),
mCbCrOffsetRaw(0),
mCameraControlFd(-1),
mAutoFocusThreadRunning(false),
mBrightness(0),
mSkinToneEnhancement(0),
mHJR(0),
mInPreviewCallback(false),
mUseOverlay(0),
mOverlay(0),
mMsgEnabled(0),
mNotifyCallback(0),
mDataCallback(0),
mDataCallbackTimestamp(0),
mCallbackCookie(0),
mInitialized(false),
mDebugFps(0),
mSnapshotDone(0),
mDisEnabled(0),
mRotation(0),
mResetOverlayCrop(false),
mThumbnailWidth(0),
mThumbnailHeight(0),
mHasAutoFocusSupport(0),
strTexturesOn(false)
{
LOGI("QualcommCameraHardware constructor E");
// Start opening camera device in a separate thread/ Since this
// initializes the sensor hardware, this can take a long time. So,
// start the process here so it will be ready by the time it's
// needed.
if ((pthread_create(&w_thread, NULL, opencamerafd, NULL)) != 0) {
LOGE("Camera open thread creation failed");
}
memset(&mDimension, 0, sizeof(mDimension));
memset(&mCrop, 0, sizeof(mCrop));
memset(&zoomCropInfo, 0, sizeof(zoom_crop_info));
storeTargetType();
char value[PROPERTY_VALUE_MAX];
property_get("persist.debug.sf.showfps", value, "0");
mDebugFps = atoi(value);
if( mCurrentTarget == TARGET_MSM7630 || mCurrentTarget == TARGET_MSM8660 ) {
kPreviewBufferCountActual = kPreviewBufferCount;
kRecordBufferCount = RECORD_BUFFERS;
recordframes = new msm_frame[kRecordBufferCount];
record_buffers_tracking_flag = new bool[kRecordBufferCount];
}
else {
kPreviewBufferCountActual = kPreviewBufferCount + NUM_MORE_BUFS;
if( mCurrentTarget == TARGET_QSD8250 ) {
kRecordBufferCount = RECORD_BUFFERS_8x50;
recordframes = new msm_frame[kRecordBufferCount];
record_buffers_tracking_flag = new bool[kRecordBufferCount];
}
}
switch(mCurrentTarget){
case TARGET_MSM7627:
jpegPadding = 0; // to be checked.
break;
case TARGET_QSD8250:
case TARGET_MSM7630:
case TARGET_MSM8660:
jpegPadding = 0;
break;
default:
jpegPadding = 0;
break;
}
// Initialize with default format values. The format values can be
// overriden when application requests.
mDimension.prev_format = CAMERA_YUV_420_NV21;
mPreviewFormat = CAMERA_YUV_420_NV21;
mDimension.enc_format = CAMERA_YUV_420_NV21;
if((mCurrentTarget == TARGET_MSM7630) || (mCurrentTarget == TARGET_MSM8660))
mDimension.enc_format = CAMERA_YUV_420_NV12;
mDimension.main_img_format = CAMERA_YUV_420_NV21;
mDimension.thumb_format = CAMERA_YUV_420_NV21;
if( (mCurrentTarget == TARGET_MSM7630) || (mCurrentTarget == TARGET_MSM8660) ){
/* DIS is enabled all the time in VPE support targets.
* No provision for the user to control this.
*/
mDisEnabled = 1;
/* Get the DIS value from properties, to check whether
* DIS is disabled or not
*/
property_get("persist.camera.hal.dis", value, "1");
mDisEnabled = atoi(value);
mVpeEnabled = 1;
}
LOGV("constructor EX");
}
void QualcommCameraHardware::hasAutoFocusSupport(){
if( !mCamOps.mm_camera_is_supported(CAMERA_OPS_FOCUS)){
LOGE("AutoFocus is not supported");
mHasAutoFocusSupport = false;
}else {
mHasAutoFocusSupport = true;
}
}
void QualcommCameraHardware::filterPreviewSizes(){
unsigned int boardMask = 0;
unsigned int prop = 0;
for(prop=0;prop<sizeof(boardProperties)/sizeof(board_property);prop++){
if(mCurrentTarget == boardProperties[prop].target){
boardMask = boardProperties[prop].previewSizeMask;
break;
}
}
int bitMask = boardMask & sensorType->bitMask;
if(bitMask){
unsigned int mask = 1<<(PREVIEW_SIZE_COUNT-1);
previewSizeCount=0;
unsigned int i = 0;
while(mask){
if(mask&bitMask)
supportedPreviewSizes[previewSizeCount++] =
preview_sizes[i];
i++;
mask = mask >> 1;
}
}
}
//filter Picture sizes based on max width and height
void QualcommCameraHardware::filterPictureSizes(){
int i;
for(i=0;i<PICTURE_SIZE_COUNT;i++){
if(((picture_sizes[i].width <=
sensorType->max_supported_snapshot_width) &&
(picture_sizes[i].height <=
sensorType->max_supported_snapshot_height))){
picture_sizes_ptr = picture_sizes + i;
supportedPictureSizesCount = PICTURE_SIZE_COUNT - i ;
return ;
}
}
}
bool QualcommCameraHardware::supportsSceneDetection() {
int prop = 0;
for(prop=0; prop<sizeof(boardProperties)/sizeof(board_property); prop++) {
if((mCurrentTarget == boardProperties[prop].target)
&& boardProperties[prop].hasSceneDetect == true) {
return true;
break;
}
}
return false;
}
bool QualcommCameraHardware::supportsSelectableZoneAf() {
int prop = 0;
for(prop=0; prop<sizeof(boardProperties)/sizeof(board_property); prop++) {
if((mCurrentTarget == boardProperties[prop].target)
&& boardProperties[prop].hasSelectableZoneAf == true) {
return true;
break;
}
}
return false;
}
void QualcommCameraHardware::initDefaultParameters()
{
LOGI("initDefaultParameters E");
findSensorType();
hasAutoFocusSupport();
//Disable DIS for Web Camera
if(!strcmp(sensorType->name, "ov7692"))
mDisEnabled = 0;
// Initialize constant parameter strings. This will happen only once in the
// lifetime of the mediaserver process.
if (!parameter_string_initialized) {
antibanding_values = create_values_str(
antibanding, sizeof(antibanding) / sizeof(str_map));
effect_values = create_values_str(
effects, sizeof(effects) / sizeof(str_map));
autoexposure_values = create_values_str(
autoexposure, sizeof(autoexposure) / sizeof(str_map));
whitebalance_values = create_values_str(
whitebalance, sizeof(whitebalance) / sizeof(str_map));
//filter preview sizes
filterPreviewSizes();
preview_size_values = create_sizes_str(
supportedPreviewSizes, previewSizeCount);
//filter picture sizes
filterPictureSizes();
picture_size_values = create_sizes_str(
picture_sizes_ptr, supportedPictureSizesCount);
flash_values = create_values_str(
flash, sizeof(flash) / sizeof(str_map));
if(mHasAutoFocusSupport){
focus_mode_values = create_values_str(
focus_modes, sizeof(focus_modes) / sizeof(str_map));
}
iso_values = create_values_str(
iso,sizeof(iso)/sizeof(str_map));
lensshade_values = create_values_str(
lensshade,sizeof(lensshade)/sizeof(str_map));
//Currently Enabling Histogram for 8x60
if(mCurrentTarget == TARGET_MSM8660) {
histogram_values = create_values_str(
histogram,sizeof(histogram)/sizeof(str_map));
}
//Currently Enabling Skin Tone Enhancement for 8x60 and 7630
if((mCurrentTarget == TARGET_MSM8660)||(mCurrentTarget == TARGET_MSM7630)) {
skinToneEnhancement_values = create_values_str(
skinToneEnhancement,sizeof(skinToneEnhancement)/sizeof(str_map));
}
if(mHasAutoFocusSupport){
touchafaec_values = create_values_str(
touchafaec,sizeof(touchafaec)/sizeof(str_map));
}
picture_format_values = create_values_str(
picture_formats, sizeof(picture_formats)/sizeof(str_map));
if(mHasAutoFocusSupport){
continuous_af_values = create_values_str(
continuous_af, sizeof(continuous_af) / sizeof(str_map));
}
if( mCfgControl.mm_camera_query_parms(CAMERA_PARM_ZOOM_RATIO, (void **)&zoomRatios, (uint32_t *) &mMaxZoom) == MM_CAMERA_SUCCESS)
{
zoomSupported = true;
if( mMaxZoom >0) {
LOGE("Maximum zoom value is %d", mMaxZoom);
if(zoomRatios != NULL) {
zoom_ratio_values = create_str(zoomRatios, mMaxZoom);
} else {
LOGE("Failed to get zoomratios ..");
}
} else {
zoomSupported = false;
}
} else {
zoomSupported = false;
LOGE("Failed to get maximum zoom value...setting max "
"zoom to zero");
mMaxZoom = 0;
}
preview_frame_rate_values = create_values_range_str(
MINIMUM_FPS, MAXIMUM_FPS);
scenemode_values = create_values_str(
scenemode, sizeof(scenemode) / sizeof(str_map));
if(supportsSceneDetection()) {
scenedetect_values = create_values_str(
scenedetect, sizeof(scenedetect) / sizeof(str_map));
}
if(mHasAutoFocusSupport && supportsSelectableZoneAf()){
selectable_zone_af_values = create_values_str(
selectable_zone_af, sizeof(selectable_zone_af) / sizeof(str_map));
}
parameter_string_initialized = true;
}
mParameters.setPreviewSize(DEFAULT_PREVIEW_WIDTH, DEFAULT_PREVIEW_HEIGHT);
mDimension.display_width = DEFAULT_PREVIEW_WIDTH;
mDimension.display_height = DEFAULT_PREVIEW_HEIGHT;
mParameters.setPreviewFrameRate(DEFAULT_FPS);
if( mCfgControl.mm_camera_is_supported(CAMERA_PARM_FPS)){
mParameters.set(
CameraParameters::KEY_SUPPORTED_PREVIEW_FRAME_RATES,
preview_frame_rate_values.string());
} else {
mParameters.set(
CameraParameters::KEY_SUPPORTED_PREVIEW_FRAME_RATES,
DEFAULT_FPS);
}
mParameters.setPreviewFrameRateMode("frame-rate-auto");
mParameters.setPreviewFormat("yuv420sp"); // informative
mParameters.setPictureSize(DEFAULT_PICTURE_WIDTH, DEFAULT_PICTURE_HEIGHT);
mParameters.setPictureFormat("jpeg"); // informative
mParameters.set(CameraParameters::KEY_JPEG_QUALITY, "85"); // max quality
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_WIDTH,
THUMBNAIL_WIDTH_STR); // informative
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_HEIGHT,
THUMBNAIL_HEIGHT_STR); // informative
mDimension.ui_thumbnail_width =
thumbnail_sizes[DEFAULT_THUMBNAIL_SETTING].width;
mDimension.ui_thumbnail_height =
thumbnail_sizes[DEFAULT_THUMBNAIL_SETTING].height;
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_QUALITY, "90");
String8 valuesStr = create_sizes_str(jpeg_thumbnail_sizes, JPEG_THUMBNAIL_SIZE_COUNT);
mParameters.set(CameraParameters::KEY_SUPPORTED_JPEG_THUMBNAIL_SIZES,
valuesStr.string());
if(zoomSupported){
mParameters.set(CameraParameters::KEY_ZOOM_SUPPORTED, "true");
LOGV("max zoom is %d", mMaxZoom-1);
/* mMaxZoom value that the query interface returns is the size
* of zoom table. So the actual max zoom value will be one
* less than that value.
*/
mParameters.set("max-zoom",mMaxZoom-1);
mParameters.set(CameraParameters::KEY_ZOOM_RATIOS,
zoom_ratio_values);
} else {
mParameters.set(CameraParameters::KEY_ZOOM_SUPPORTED, "false");
}
/* Enable zoom support for video application if VPE enabled */
if(zoomSupported && mVpeEnabled) {
mParameters.set("video-zoom-support", "true");
} else {
mParameters.set("video-zoom-support", "false");
}
mParameters.set(CameraParameters::KEY_ANTIBANDING,
CameraParameters::ANTIBANDING_OFF);
mParameters.set(CameraParameters::KEY_EFFECT,
CameraParameters::EFFECT_NONE);
mParameters.set(CameraParameters::KEY_AUTO_EXPOSURE,
CameraParameters::AUTO_EXPOSURE_FRAME_AVG);
mParameters.set(CameraParameters::KEY_WHITE_BALANCE,
CameraParameters::WHITE_BALANCE_AUTO);
mParameters.set(CameraParameters::KEY_FOCUS_MODE,
CameraParameters::FOCUS_MODE_AUTO);
if( (mCurrentTarget != TARGET_MSM7630) && (mCurrentTarget != TARGET_QSD8250) ) {
mParameters.set(CameraParameters::KEY_SUPPORTED_PREVIEW_FORMATS,
"yuv420sp");
}
else {
preview_format_values = create_values_str(
preview_formats, sizeof(preview_formats) / sizeof(str_map));
mParameters.set(CameraParameters::KEY_SUPPORTED_PREVIEW_FORMATS,
preview_format_values.string());
}
frame_rate_mode_values = create_values_str(
frame_rate_modes, sizeof(frame_rate_modes) / sizeof(str_map));
if( mCfgControl.mm_camera_is_supported(CAMERA_PARM_FPS_MODE)){
mParameters.set(CameraParameters::KEY_SUPPORTED_PREVIEW_FRAME_RATE_MODES,
frame_rate_mode_values.string());
}
mParameters.set(CameraParameters::KEY_SUPPORTED_PREVIEW_SIZES,
preview_size_values.string());
mParameters.set(CameraParameters::KEY_SUPPORTED_PICTURE_SIZES,
picture_size_values.string());
mParameters.set(CameraParameters::KEY_SUPPORTED_ANTIBANDING,
antibanding_values);
mParameters.set(CameraParameters::KEY_SUPPORTED_EFFECTS, effect_values);
mParameters.set(CameraParameters::KEY_SUPPORTED_AUTO_EXPOSURE, autoexposure_values);
mParameters.set(CameraParameters::KEY_SUPPORTED_WHITE_BALANCE,
whitebalance_values);
if(mHasAutoFocusSupport)
mParameters.set(CameraParameters::KEY_SUPPORTED_FOCUS_MODES,
focus_mode_values);
else
mParameters.set(CameraParameters::KEY_SUPPORTED_FOCUS_MODES,
CameraParameters::FOCUS_MODE_INFINITY);
mParameters.set(CameraParameters::KEY_SUPPORTED_PICTURE_FORMATS,
picture_format_values);
if (mSensorInfo.flash_enabled) {
mParameters.set(CameraParameters::KEY_FLASH_MODE,
CameraParameters::FLASH_MODE_OFF);
mParameters.set(CameraParameters::KEY_SUPPORTED_FLASH_MODES,
flash_values);
}
mParameters.set(CameraParameters::KEY_MAX_SHARPNESS,
CAMERA_MAX_SHARPNESS);
mParameters.set(CameraParameters::KEY_MAX_CONTRAST,
CAMERA_MAX_CONTRAST);
mParameters.set(CameraParameters::KEY_MAX_SATURATION,
CAMERA_MAX_SATURATION);
mParameters.set(
CameraParameters::KEY_MAX_EXPOSURE_COMPENSATION,
EXPOSURE_COMPENSATION_MAXIMUM_NUMERATOR);
mParameters.set(
CameraParameters::KEY_MIN_EXPOSURE_COMPENSATION,
EXPOSURE_COMPENSATION_MINIMUM_NUMERATOR);
mParameters.set(
CameraParameters::KEY_EXPOSURE_COMPENSATION,
EXPOSURE_COMPENSATION_DEFAULT_NUMERATOR);
mParameters.setFloat(
CameraParameters::KEY_EXPOSURE_COMPENSATION_STEP,
EXPOSURE_COMPENSATION_STEP);
mParameters.set("luma-adaptation", "3");
mParameters.set("skinToneEnhancement", "0");
mParameters.set("zoom-supported", "true");
mParameters.set("zoom", 0);
mParameters.set(CameraParameters::KEY_PICTURE_FORMAT,
CameraParameters::PIXEL_FORMAT_JPEG);
mParameters.set(CameraParameters::KEY_SHARPNESS,
CAMERA_DEF_SHARPNESS);
mParameters.set(CameraParameters::KEY_CONTRAST,
CAMERA_DEF_CONTRAST);
mParameters.set(CameraParameters::KEY_SATURATION,
CAMERA_DEF_SATURATION);
mParameters.set(CameraParameters::KEY_ISO_MODE,
CameraParameters::ISO_AUTO);
mParameters.set(CameraParameters::KEY_LENSSHADE,
CameraParameters::LENSSHADE_ENABLE);
mParameters.set(CameraParameters::KEY_SUPPORTED_ISO_MODES,
iso_values);
mParameters.set(CameraParameters::KEY_SUPPORTED_LENSSHADE_MODES,
lensshade_values);
mParameters.set(CameraParameters::KEY_HISTOGRAM,
CameraParameters::HISTOGRAM_DISABLE);
mParameters.set(CameraParameters::KEY_SUPPORTED_HISTOGRAM_MODES,
histogram_values);
mParameters.set(CameraParameters::KEY_SKIN_TONE_ENHANCEMENT,
CameraParameters::SKIN_TONE_ENHANCEMENT_DISABLE);
mParameters.set(CameraParameters::KEY_SUPPORTED_SKIN_TONE_ENHANCEMENT_MODES,
skinToneEnhancement_values);
mParameters.set(CameraParameters::KEY_SCENE_MODE,
CameraParameters::SCENE_MODE_AUTO);
mParameters.set("strtextures", "OFF");
mParameters.set(CameraParameters::KEY_SUPPORTED_SCENE_MODES,
scenemode_values);
mParameters.set(CameraParameters::KEY_CONTINUOUS_AF,
CameraParameters::CONTINUOUS_AF_OFF);
mParameters.set(CameraParameters::KEY_SUPPORTED_CONTINUOUS_AF,
continuous_af_values);
mParameters.set(CameraParameters::KEY_TOUCH_AF_AEC,
CameraParameters::TOUCH_AF_AEC_OFF);
mParameters.set(CameraParameters::KEY_SUPPORTED_TOUCH_AF_AEC,
touchafaec_values);
mParameters.setTouchIndexAec(-1, -1);
mParameters.setTouchIndexAf(-1, -1);
mParameters.set(CameraParameters::KEY_SCENE_DETECT,
CameraParameters::SCENE_DETECT_OFF);
mParameters.set(CameraParameters::KEY_SUPPORTED_SCENE_DETECT,
scenedetect_values);
mParameters.setFloat(CameraParameters::KEY_FOCAL_LENGTH,
CAMERA_FOCAL_LENGTH_DEFAULT);
mParameters.setFloat(CameraParameters::KEY_HORIZONTAL_VIEW_ANGLE,
CAMERA_HORIZONTAL_VIEW_ANGLE_DEFAULT);
mParameters.setFloat(CameraParameters::KEY_VERTICAL_VIEW_ANGLE,
CAMERA_VERTICAL_VIEW_ANGLE_DEFAULT);
mParameters.set(CameraParameters::KEY_SELECTABLE_ZONE_AF,
CameraParameters::SELECTABLE_ZONE_AF_AUTO);
mParameters.set(CameraParameters::KEY_SUPPORTED_SELECTABLE_ZONE_AF,
selectable_zone_af_values);
if (setParameters(mParameters) != NO_ERROR) {
LOGE("Failed to set default parameters?!");
}
mUseOverlay = useOverlay();
/* Initialize the camframe_timeout_flag*/
Mutex::Autolock l(&mCamframeTimeoutLock);
camframe_timeout_flag = FALSE;
mPostViewHeap = NULL;
mDisplayHeap = NULL;
mThumbnailHeap = NULL;
mInitialized = true;
strTexturesOn = false;
LOGI("initDefaultParameters X");
}
void QualcommCameraHardware::findSensorType(){
mDimension.picture_width = DEFAULT_PICTURE_WIDTH;
mDimension.picture_height = DEFAULT_PICTURE_HEIGHT;
bool ret = native_set_parms(CAMERA_PARM_DIMENSION,
sizeof(cam_ctrl_dimension_t),(void *) &mDimension);
if (ret) {
unsigned int i;
for (i = 0; i < sizeof(sensorTypes) / sizeof(SensorType); i++) {
if (sensorTypes[i].rawPictureHeight
== mDimension.raw_picture_height) {
sensorType = sensorTypes + i;
return;
}
}
}
//default to 5 mp
sensorType = sensorTypes;
return;
}
#define ROUND_TO_PAGE(x) (((x)+0xfff)&~0xfff)
bool QualcommCameraHardware::startCamera()
{
LOGV("startCamera E");
if( mCurrentTarget == TARGET_MAX ) {
LOGE(" Unable to determine the target type. Camera will not work ");
return false;
}
#if DLOPEN_LIBMMCAMERA
libmmcamera = ::dlopen("liboemcamera.so", RTLD_NOW);
LOGV("loading liboemcamera at %p", libmmcamera);
if (!libmmcamera) {
LOGE("FATAL ERROR: could not dlopen liboemcamera.so: %s", dlerror());
return false;
}
*(void **)&LINK_cam_frame =
::dlsym(libmmcamera, "cam_frame");
*(void **)&LINK_camframe_terminate =
::dlsym(libmmcamera, "camframe_terminate");
*(void **)&LINK_jpeg_encoder_init =
::dlsym(libmmcamera, "jpeg_encoder_init");
*(void **)&LINK_jpeg_encoder_encode =
::dlsym(libmmcamera, "jpeg_encoder_encode");
*(void **)&LINK_jpeg_encoder_join =
::dlsym(libmmcamera, "jpeg_encoder_join");
*(void **)&LINK_mmcamera_camframe_callback =
::dlsym(libmmcamera, "mmcamera_camframe_callback");
*LINK_mmcamera_camframe_callback = receive_camframe_callback;
*(void **)&LINK_mmcamera_camstats_callback =
::dlsym(libmmcamera, "mmcamera_camstats_callback");
*LINK_mmcamera_camstats_callback = receive_camstats_callback;
*(void **)&LINK_mmcamera_jpegfragment_callback =
::dlsym(libmmcamera, "mmcamera_jpegfragment_callback");
*LINK_mmcamera_jpegfragment_callback = receive_jpeg_fragment_callback;
*(void **)&LINK_mmcamera_jpeg_callback =
::dlsym(libmmcamera, "mmcamera_jpeg_callback");
*LINK_mmcamera_jpeg_callback = receive_jpeg_callback;
*(void **)&LINK_camframe_error_callback =
::dlsym(libmmcamera, "camframe_error_callback");
*LINK_camframe_error_callback = receive_camframe_error_callback;
// 720 p new recording functions
*(void **)&LINK_cam_frame_flush_free_video = ::dlsym(libmmcamera, "cam_frame_flush_free_video");
*(void **)&LINK_camframe_free_video = ::dlsym(libmmcamera, "cam_frame_add_free_video");
*(void **)&LINK_camframe_video_callback = ::dlsym(libmmcamera, "mmcamera_camframe_videocallback");
*LINK_camframe_video_callback = receive_camframe_video_callback;
*(void **)&LINK_mmcamera_shutter_callback =
::dlsym(libmmcamera, "mmcamera_shutter_callback");
*LINK_mmcamera_shutter_callback = receive_shutter_callback;
*(void**)&LINK_jpeg_encoder_setMainImageQuality =
::dlsym(libmmcamera, "jpeg_encoder_setMainImageQuality");
*(void**)&LINK_jpeg_encoder_setThumbnailQuality =
::dlsym(libmmcamera, "jpeg_encoder_setThumbnailQuality");
*(void**)&LINK_jpeg_encoder_setRotation =
::dlsym(libmmcamera, "jpeg_encoder_setRotation");
*(void**)&LINK_jpeg_encoder_get_buffer_offset =
::dlsym(libmmcamera, "jpeg_encoder_get_buffer_offset");
/* Disabling until support is available.
*(void**)&LINK_jpeg_encoder_setLocation =
::dlsym(libmmcamera, "jpeg_encoder_setLocation");
*/
*(void **)&LINK_cam_conf =
::dlsym(libmmcamera, "cam_conf");
/* Disabling until support is available.
*(void **)&LINK_default_sensor_get_snapshot_sizes =
::dlsym(libmmcamera, "default_sensor_get_snapshot_sizes");
*/
*(void **)&LINK_launch_cam_conf_thread =
::dlsym(libmmcamera, "launch_cam_conf_thread");
*(void **)&LINK_release_cam_conf_thread =
::dlsym(libmmcamera, "release_cam_conf_thread");
*(void **)&LINK_mm_camera_init =
::dlsym(libmmcamera, "mm_camera_init");
*(void **)&LINK_mmcamera_liveshot_callback =
::dlsym(libmmcamera, "mmcamera_liveshot_callback");
*LINK_mmcamera_liveshot_callback = receive_liveshot_callback;
*(void **)&LINK_cancel_liveshot =
::dlsym(libmmcamera, "cancel_liveshot");
*(void **)&LINK_set_liveshot_params =
::dlsym(libmmcamera, "set_liveshot_params");
*(void **)&LINK_mm_camera_deinit =
::dlsym(libmmcamera, "mm_camera_deinit");
/* Disabling until support is available.
*(void **)&LINK_zoom_crop_upscale =
::dlsym(libmmcamera, "zoom_crop_upscale");
*/
#else
mmcamera_camframe_callback = receive_camframe_callback;
mmcamera_camstats_callback = receive_camstats_callback;
mmcamera_jpegfragment_callback = receive_jpeg_fragment_callback;
mmcamera_jpeg_callback = receive_jpeg_callback;
mmcamera_shutter_callback = receive_shutter_callback;
mmcamera_liveshot_callback = receive_liveshot_callback;
#endif // DLOPEN_LIBMMCAMERA
/* The control thread is in libcamera itself. */
if (pthread_join(w_thread, NULL) != 0) {
LOGE("Camera open thread exit failed");
return false;
}
mCameraControlFd = camerafd;
if (mCameraControlFd < 0) {
LOGE("startCamera X: %s open failed: %s!",
MSM_CAMERA_CONTROL,
strerror(errno));
return false;
}
if (MM_CAMERA_SUCCESS != LINK_mm_camera_init(&mCfgControl, &mCamNotify, &mCamOps)) {
LOGE("startCamera: mm_camera_init failed:");
return FALSE;
}
if((mCurrentTarget != TARGET_MSM7630) && (mCurrentTarget != TARGET_MSM8660)){
fb_fd = open("/dev/graphics/fb0", O_RDWR);
if (fb_fd < 0) {
LOGE("startCamera: fb0 open failed: %s!", strerror(errno));
return FALSE;
}
}
/* This will block until the control thread is launched. After that, sensor
* information becomes available.
*/
memset(&mSensorInfo, 0, sizeof(mSensorInfo));
if (ioctl(mCameraControlFd,
MSM_CAM_IOCTL_GET_SENSOR_INFO,
&mSensorInfo) < 0)
LOGW("%s: cannot retrieve sensor info!", __FUNCTION__);
else
LOGI("%s: camsensor name %s, flash %d", __FUNCTION__,
mSensorInfo.name, mSensorInfo.flash_enabled);
mCfgControl.mm_camera_query_parms(CAMERA_PARM_PICT_SIZE, (void **)&picture_sizes, &PICTURE_SIZE_COUNT);
if (!picture_sizes || !PICTURE_SIZE_COUNT) {
LOGE("startCamera X: could not get snapshot sizes");
return false;
}
LOGV("startCamera picture_sizes %p PICTURE_SIZE_COUNT %d", picture_sizes, PICTURE_SIZE_COUNT);
LOGV("startCamera X");
return true;
}
status_t QualcommCameraHardware::dump(int fd,
const Vector<String16>& args) const
{
const size_t SIZE = 256;
char buffer[SIZE];
String8 result;
// Dump internal primitives.
result.append("QualcommCameraHardware::dump");
snprintf(buffer, 255, "mMsgEnabled (%d)\n", mMsgEnabled);
result.append(buffer);
int width, height;
mParameters.getPreviewSize(&width, &height);
snprintf(buffer, 255, "preview width(%d) x height (%d)\n", width, height);
result.append(buffer);
mParameters.getPictureSize(&width, &height);
snprintf(buffer, 255, "raw width(%d) x height (%d)\n", width, height);
result.append(buffer);
snprintf(buffer, 255,
"preview frame size(%d), raw size (%d), jpeg size (%d) "
"and jpeg max size (%d)\n", mPreviewFrameSize, mRawSize,
mJpegSize, mJpegMaxSize);
result.append(buffer);
write(fd, result.string(), result.size());
// Dump internal objects.
if (mPreviewHeap != 0) {
mPreviewHeap->dump(fd, args);
}
if (mRawHeap != 0) {
mRawHeap->dump(fd, args);
}
if (mJpegHeap != 0) {
mJpegHeap->dump(fd, args);
}
mParameters.dump(fd, args);
return NO_ERROR;
}
/* Issue ioctl calls related to starting Camera Operations*/
bool static native_start_ops(mm_camera_ops_type_t type, void* value)
{
if(mCamOps.mm_camera_start(type, value,NULL) != MM_CAMERA_SUCCESS) {
LOGE("native_start_ops: type %d error %s",
type,strerror(errno));
return false;
}
return true;
}
/* Issue ioctl calls related to stopping Camera Operations*/
bool static native_stop_ops(mm_camera_ops_type_t type, void* value)
{
if(mCamOps.mm_camera_stop(type, value,NULL) != MM_CAMERA_SUCCESS) {
LOGE("native_stop_ops: type %d error %s",
type,strerror(errno));
return false;
}
return true;
}
/*==========================================================================*/
static cam_frame_start_parms frame_parms;
static int recordingState = 0;
#define GPS_PROCESSING_METHOD_SIZE 101
#define FOCAL_LENGTH_DECIMAL_PRECISON 100
static const char ExifAsciiPrefix[] = { 0x41, 0x53, 0x43, 0x49, 0x49, 0x0, 0x0, 0x0 };
#define EXIF_ASCII_PREFIX_SIZE (sizeof(ExifAsciiPrefix))
static rat_t latitude[3];
static rat_t longitude[3];
static char lonref[2];
static char latref[2];
static rat_t altitude;
static rat_t gpsTimestamp[3];
static char gpsDatestamp[20];
static char dateTime[20];
static rat_t focalLength;
static char gpsProcessingMethod[EXIF_ASCII_PREFIX_SIZE + GPS_PROCESSING_METHOD_SIZE];
static void addExifTag(exif_tag_id_t tagid, exif_tag_type_t type,
uint32_t count, uint8_t copy, void *data) {
if(exif_table_numEntries == MAX_EXIF_TABLE_ENTRIES) {
LOGE("Number of entries exceeded limit");
return;
}
int index = exif_table_numEntries;
exif_data[index].tag_id = tagid;
exif_data[index].tag_entry.type = type;
exif_data[index].tag_entry.count = count;
exif_data[index].tag_entry.copy = copy;
if((type == EXIF_RATIONAL) && (count > 1))
exif_data[index].tag_entry.data._rats = (rat_t *)data;
if((type == EXIF_RATIONAL) && (count == 1))
exif_data[index].tag_entry.data._rat = *(rat_t *)data;
else if(type == EXIF_ASCII)
exif_data[index].tag_entry.data._ascii = (char *)data;
else if(type == EXIF_BYTE)
exif_data[index].tag_entry.data._byte = *(uint8_t *)data;
// Increase number of entries
exif_table_numEntries++;
}
static void parseLatLong(const char *latlonString, int *pDegrees,
int *pMinutes, int *pSeconds ) {
double value = atof(latlonString);
value = fabs(value);
int degrees = (int) value;
double remainder = value - degrees;
int minutes = (int) (remainder * 60);
int seconds = (int) (((remainder * 60) - minutes) * 60 * 1000);
*pDegrees = degrees;
*pMinutes = minutes;
*pSeconds = seconds;
}
static void setLatLon(exif_tag_id_t tag, const char *latlonString) {
int degrees, minutes, seconds;
parseLatLong(latlonString, &degrees, &minutes, &seconds);
rat_t value[3] = { {degrees, 1},
{minutes, 1},
{seconds, 1000} };
if(tag == EXIFTAGID_GPS_LATITUDE) {
memcpy(latitude, value, sizeof(latitude));
addExifTag(EXIFTAGID_GPS_LATITUDE, EXIF_RATIONAL, 3,
1, (void *)latitude);
} else {
memcpy(longitude, value, sizeof(longitude));
addExifTag(EXIFTAGID_GPS_LONGITUDE, EXIF_RATIONAL, 3,
1, (void *)longitude);
}
}
void QualcommCameraHardware::setGpsParameters() {
const char *str = NULL;
str = mParameters.get(CameraParameters::KEY_GPS_PROCESSING_METHOD);
if(str!=NULL ){
memcpy(gpsProcessingMethod, ExifAsciiPrefix, EXIF_ASCII_PREFIX_SIZE);
strncpy(gpsProcessingMethod + EXIF_ASCII_PREFIX_SIZE, str,
GPS_PROCESSING_METHOD_SIZE-1);
gpsProcessingMethod[EXIF_ASCII_PREFIX_SIZE + GPS_PROCESSING_METHOD_SIZE-1] = '\0';
addExifTag(EXIFTAGID_GPS_PROCESSINGMETHOD, EXIF_ASCII,
EXIF_ASCII_PREFIX_SIZE + strlen(gpsProcessingMethod + EXIF_ASCII_PREFIX_SIZE) + 1,
1, (void *)gpsProcessingMethod);
}
str = NULL;
//Set Latitude
str = mParameters.get(CameraParameters::KEY_GPS_LATITUDE);
if(str != NULL) {
setLatLon(EXIFTAGID_GPS_LATITUDE, str);
//set Latitude Ref
float latitudeValue = mParameters.getFloat(CameraParameters::KEY_GPS_LATITUDE);
latref[0] = 'N';
if(latitudeValue < 0 ){
latref[0] = 'S';
}
latref[1] = '\0';
mParameters.set(CameraParameters::KEY_GPS_LATITUDE_REF, latref);
addExifTag(EXIFTAGID_GPS_LATITUDE_REF, EXIF_ASCII, 2,
1, (void *)latref);
}
//set Longitude
str = NULL;
str = mParameters.get(CameraParameters::KEY_GPS_LONGITUDE);
if(str != NULL) {
setLatLon(EXIFTAGID_GPS_LONGITUDE, str);
//set Longitude Ref
float longitudeValue = mParameters.getFloat(CameraParameters::KEY_GPS_LONGITUDE);
lonref[0] = 'E';
if(longitudeValue < 0){
lonref[0] = 'W';
}
lonref[1] = '\0';
mParameters.set(CameraParameters::KEY_GPS_LONGITUDE_REF, lonref);
addExifTag(EXIFTAGID_GPS_LONGITUDE_REF, EXIF_ASCII, 2,
1, (void *)lonref);
}
//set Altitude
str = NULL;
str = mParameters.get(CameraParameters::KEY_GPS_ALTITUDE);
if(str != NULL) {
int value = atoi(str);
int ref = 0;
if(value < 0){
ref = 1;
value = -value;
}
rat_t alt_value = {value, 1000};
memcpy(&altitude, &alt_value, sizeof(altitude));
addExifTag(EXIFTAGID_GPS_ALTITUDE, EXIF_RATIONAL, 1,
1, (void *)&altitude);
//set AltitudeRef
mParameters.set(CameraParameters::KEY_GPS_ALTITUDE_REF, ref);
addExifTag(EXIFTAGID_GPS_ALTITUDE_REF, EXIF_BYTE, 1,
1, (void *)&ref);
}
//set Gps TimeStamp
str = NULL;
str = mParameters.get(CameraParameters::KEY_GPS_TIMESTAMP);
if(str != NULL) {
long value = atol(str);
time_t unixTime;
struct tm *UTCTimestamp;
unixTime = (time_t)value;
UTCTimestamp = gmtime(&unixTime);
strftime(gpsDatestamp, sizeof(gpsDatestamp), "%Y:%m:%d", UTCTimestamp);
addExifTag(EXIFTAGID_GPS_DATESTAMP, EXIF_ASCII,
strlen(gpsDatestamp)+1 , 1, (void *)&gpsDatestamp);
rat_t time_value[3] = { {UTCTimestamp->tm_hour, 1},
{UTCTimestamp->tm_min, 1},
{UTCTimestamp->tm_sec, 1} };
memcpy(&gpsTimestamp, &time_value, sizeof(gpsTimestamp));
addExifTag(EXIFTAGID_GPS_TIMESTAMP, EXIF_RATIONAL,
3, 1, (void *)&gpsTimestamp);
}
}
bool QualcommCameraHardware::native_jpeg_encode(void)
{
int jpeg_quality = mParameters.getInt("jpeg-quality");
if (jpeg_quality >= 0) {
LOGV("native_jpeg_encode, current jpeg main img quality =%d",
jpeg_quality);
if(!LINK_jpeg_encoder_setMainImageQuality(jpeg_quality)) {
LOGE("native_jpeg_encode set jpeg-quality failed");
return false;
}
}
int thumbnail_quality = mParameters.getInt("jpeg-thumbnail-quality");
if (thumbnail_quality >= 0) {
LOGV("native_jpeg_encode, current jpeg thumbnail quality =%d",
thumbnail_quality);
if(!LINK_jpeg_encoder_setThumbnailQuality(thumbnail_quality)) {
LOGE("native_jpeg_encode set thumbnail-quality failed");
return false;
}
}
if( (mCurrentTarget != TARGET_MSM7630) && (mCurrentTarget != TARGET_MSM7627) && (mCurrentTarget != TARGET_MSM8660) ) {
int rotation = mParameters.getInt("rotation");
if (rotation >= 0) {
LOGV("native_jpeg_encode, rotation = %d", rotation);
if(!LINK_jpeg_encoder_setRotation(rotation)) {
LOGE("native_jpeg_encode set rotation failed");
return false;
}
}
}
jpeg_set_location();
//set TimeStamp
const char *str = mParameters.get(CameraParameters::KEY_EXIF_DATETIME);
if(str != NULL) {
strncpy(dateTime, str, 19);
dateTime[19] = '\0';
addExifTag(EXIFTAGID_EXIF_DATE_TIME_ORIGINAL, EXIF_ASCII,
20, 1, (void *)dateTime);
}
int focalLengthValue = (int) (mParameters.getFloat(
CameraParameters::KEY_FOCAL_LENGTH) * FOCAL_LENGTH_DECIMAL_PRECISON);
rat_t focalLengthRational = {focalLengthValue, FOCAL_LENGTH_DECIMAL_PRECISON};
memcpy(&focalLength, &focalLengthRational, sizeof(focalLengthRational));
addExifTag(EXIFTAGID_FOCAL_LENGTH, EXIF_RATIONAL, 1,
1, (void *)&focalLength);
uint8_t * thumbnailHeap = NULL;
int thumbfd = -1;
int width = mParameters.getInt(CameraParameters::KEY_JPEG_THUMBNAIL_WIDTH);
int height = mParameters.getInt(CameraParameters::KEY_JPEG_THUMBNAIL_HEIGHT);
LOGV("width %d and height %d", width , height);
if(width != 0 && height != 0){
if((mCurrentTarget == TARGET_MSM7630) ||
(mCurrentTarget == TARGET_MSM8660) ||
(mCurrentTarget == TARGET_MSM7627) ||
(strTexturesOn == true)) {
thumbnailHeap = (uint8_t *)mRawHeap->mHeap->base();
thumbfd = mRawHeap->mHeap->getHeapID();
} else {
thumbnailHeap = (uint8_t *)mThumbnailHeap->mHeap->base();
thumbfd = mThumbnailHeap->mHeap->getHeapID();
}
}else {
thumbnailHeap = NULL;
thumbfd = 0;
}
if( (mCurrentTarget == TARGET_MSM7630) ||
(mCurrentTarget == TARGET_MSM8660) ||
(mCurrentTarget == TARGET_MSM7627) ||
(strTexturesOn == true) ) {
// Pass the main image as thumbnail buffer, so that jpeg encoder will
// generate thumbnail based on main image.
// Set the input and output dimensions for thumbnail generation to main
// image dimensions and required thumbanail size repectively, for the
// encoder to do downscaling of the main image accordingly.
mCrop.in1_w = mDimension.orig_picture_dx;
mCrop.in1_h = mDimension.orig_picture_dy;
/* For Adreno format on targets that don't use VFE other output
* for postView, thumbnail_width and thumbnail_height has the
* actual thumbnail dimensions.
*/
mCrop.out1_w = mDimension.thumbnail_width;
mCrop.out1_h = mDimension.thumbnail_height;
/* For targets, that uses VFE other output for postview,
* thumbnail_width and thumbnail_height has values based on postView
* dimensions(mostly previewWidth X previewHeight), but not based on
* required thumbnail dimensions. So, while downscaling, we need to
* pass the actual thumbnail dimensions, not the postview dimensions.
* mThumbnailWidth/Height has the required thumbnail dimensions, so
* use them here.
*/
if( (mCurrentTarget == TARGET_MSM7630)||
(mCurrentTarget == TARGET_MSM7627) ||
(mCurrentTarget == TARGET_MSM8660)) {
mCrop.out1_w = mThumbnailWidth;
mCrop.out1_h = mThumbnailHeight;
}
mDimension.thumbnail_width = mDimension.orig_picture_dx;
mDimension.thumbnail_height = mDimension.orig_picture_dy;
LOGV("mCrop.in1_w = %d, mCrop.in1_h = %d", mCrop.in1_w, mCrop.in1_h);
LOGV("mCrop.out1_w = %d, mCrop.out1_h = %d", mCrop.out1_w, mCrop.out1_h);
LOGV("mDimension.thumbnail_width = %d, mDimension.thumbnail_height = %d", mDimension.thumbnail_width, mDimension.thumbnail_height);
int CbCrOffset = -1;
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO)
CbCrOffset = mCbCrOffsetRaw;
mCrop.in1_w = mDimension.orig_picture_dx - jpegPadding; // when cropping is enabled
mCrop.in1_h = mDimension.orig_picture_dy - jpegPadding; // when cropping is enabled
if (!LINK_jpeg_encoder_encode(&mDimension,
thumbnailHeap,
thumbfd,
(uint8_t *)mRawHeap->mHeap->base(),
mRawHeap->mHeap->getHeapID(),
&mCrop, exif_data, exif_table_numEntries,
jpegPadding/2, CbCrOffset)) {
LOGE("native_jpeg_encode: jpeg_encoder_encode failed.");
return false;
}
} else {
if (!LINK_jpeg_encoder_encode(&mDimension,
thumbnailHeap,
thumbfd,
(uint8_t *)mRawHeap->mHeap->base(),
mRawHeap->mHeap->getHeapID(),
&mCrop, exif_data, exif_table_numEntries,
jpegPadding/2, -1)) {
LOGE("native_jpeg_encode: jpeg_encoder_encode failed.");
return false;
}
}
return true;
}
bool QualcommCameraHardware::native_set_parms(
mm_camera_parm_type_t type, uint16_t length, void *value)
{
if(mCfgControl.mm_camera_set_parm(type,value) != MM_CAMERA_SUCCESS) {
LOGE("native_set_parms failed: type %d error %s",
type,strerror(errno));
return false;
}
return true;
}
bool QualcommCameraHardware::native_set_parms(
mm_camera_parm_type_t type, uint16_t length, void *value, int *result)
{
mm_camera_status_t status;
status = mCfgControl.mm_camera_set_parm(type,value);
LOGV("native_set_parms status = %d", status);
if( status == MM_CAMERA_SUCCESS || status == MM_CAMERA_ERR_INVALID_OPERATION){
*result = status ;
return true;
}
LOGE("%s: type %d, status %d", __FUNCTION__, strerror(errno), status);
*result = status;
return false;
}
void QualcommCameraHardware::jpeg_set_location()
{
bool encode_location = true;
camera_position_type pt;
#define PARSE_LOCATION(what,type,fmt,desc) do { \
pt.what = 0; \
const char *what##_str = mParameters.get("gps-"#what); \
LOGV("GPS PARM %s --> [%s]", "gps-"#what, what##_str); \
if (what##_str) { \
type what = 0; \
if (sscanf(what##_str, fmt, &what) == 1) \
pt.what = what; \
else { \
LOGE("GPS " #what " %s could not" \
" be parsed as a " #desc, what##_str); \
encode_location = false; \
} \
} \
else { \
LOGV("GPS " #what " not specified: " \
"defaulting to zero in EXIF header."); \
encode_location = false; \
} \
} while(0)
PARSE_LOCATION(timestamp, long, "%ld", "long");
if (!pt.timestamp) pt.timestamp = time(NULL);
PARSE_LOCATION(altitude, short, "%hd", "short");
PARSE_LOCATION(latitude, double, "%lf", "double float");
PARSE_LOCATION(longitude, double, "%lf", "double float");
#undef PARSE_LOCATION
if (encode_location) {
LOGD("setting image location ALT %d LAT %lf LON %lf",
pt.altitude, pt.latitude, pt.longitude);
setGpsParameters();
/* Disabling until support is available.
if (!LINK_jpeg_encoder_setLocation(&pt)) {
LOGE("jpeg_set_location: LINK_jpeg_encoder_setLocation failed.");
}
*/
}
else LOGV("not setting image location");
}
void QualcommCameraHardware::runFrameThread(void *data)
{
LOGV("runFrameThread E");
int cnt;
#if DLOPEN_LIBMMCAMERA
// We need to maintain a reference to libqcamera.so for the duration of the
// frame thread, because we do not know when it will exit relative to the
// lifetime of this object. We do not want to dlclose() libqcamera while
// LINK_cam_frame is still running.
void *libhandle = ::dlopen("liboemcamera.so", RTLD_NOW);
LOGV("FRAME: loading libqcamera at %p", libhandle);
if (!libhandle) {
LOGE("FATAL ERROR: could not dlopen liboemcamera.so: %s", dlerror());
}
if (libhandle)
#endif
{
LINK_cam_frame(data);
}
mPreviewHeap.clear();
if(( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660))
mRecordHeap.clear();
#if DLOPEN_LIBMMCAMERA
if (libhandle) {
::dlclose(libhandle);
LOGV("FRAME: dlclose(libqcamera)");
}
#endif
mFrameThreadWaitLock.lock();
mFrameThreadRunning = false;
mFrameThreadWait.signal();
mFrameThreadWaitLock.unlock();
LOGV("runFrameThread X");
}
void QualcommCameraHardware::runVideoThread(void *data)
{
LOGD("runVideoThread E");
msm_frame* vframe = NULL;
while(true) {
pthread_mutex_lock(&(g_busy_frame_queue.mut));
// Exit the thread , in case of stop recording..
mVideoThreadWaitLock.lock();
if(mVideoThreadExit){
LOGV("Exiting video thread..");
mVideoThreadWaitLock.unlock();
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
break;
}
mVideoThreadWaitLock.unlock();
LOGV("in video_thread : wait for video frame ");
// check if any frames are available in busyQ and give callback to
// services/video encoder
cam_frame_wait_video();
LOGV("video_thread, wait over..");
// Exit the thread , in case of stop recording..
mVideoThreadWaitLock.lock();
if(mVideoThreadExit){
LOGV("Exiting video thread..");
mVideoThreadWaitLock.unlock();
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
break;
}
mVideoThreadWaitLock.unlock();
// Get the video frame to be encoded
vframe = cam_frame_get_video ();
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
LOGV("in video_thread : got video frame ");
if (UNLIKELY(mDebugFps)) {
debugShowVideoFPS();
}
if(vframe != NULL) {
// Find the offset within the heap of the current buffer.
LOGV("Got video frame : buffer %d base %d ", vframe->buffer, mRecordHeap->mHeap->base());
ssize_t offset =
(ssize_t)vframe->buffer - (ssize_t)mRecordHeap->mHeap->base();
LOGV("offset = %d , alignsize = %d , offset later = %d", offset, mRecordHeap->mAlignedBufferSize, (offset / mRecordHeap->mAlignedBufferSize));
offset /= mRecordHeap->mAlignedBufferSize;
//set the track flag to true for this video buffer
record_buffers_tracking_flag[offset] = true;
/* Extract the timestamp of this frame */
nsecs_t timeStamp = nsecs_t(vframe->ts.tv_sec)*1000000000LL + vframe->ts.tv_nsec;
// dump frames for test purpose
#ifdef DUMP_VIDEO_FRAMES
static int frameCnt = 0;
if (frameCnt >= 11 && frameCnt <= 13 ) {
char buf[128];
sprintf(buf, "/data/%d_v.yuv", frameCnt);
int file_fd = open(buf, O_RDWR | O_CREAT, 0777);
LOGV("dumping video frame %d", frameCnt);
if (file_fd < 0) {
LOGE("cannot open file\n");
}
else
{
write(file_fd, (const void *)vframe->buffer,
vframe->cbcr_off * 3 / 2);
}
close(file_fd);
}
frameCnt++;
#endif
// Enable IF block to give frames to encoder , ELSE block for just simulation
#if 1
LOGV("in video_thread : got video frame, before if check giving frame to services/encoder");
mCallbackLock.lock();
int msgEnabled = mMsgEnabled;
data_callback_timestamp rcb = mDataCallbackTimestamp;
void *rdata = mCallbackCookie;
mCallbackLock.unlock();
if(rcb != NULL && (msgEnabled & CAMERA_MSG_VIDEO_FRAME) ) {
LOGV("in video_thread : got video frame, giving frame to services/encoder");
rcb(timeStamp, CAMERA_MSG_VIDEO_FRAME, mRecordHeap->mBuffers[offset], rdata);
}
#else
// 720p output2 : simulate release frame here:
LOGE("in video_thread simulation , releasing the video frame");
LINK_camframe_free_video(vframe);
#endif
} else LOGE("in video_thread get frame returned null");
} // end of while loop
mVideoThreadWaitLock.lock();
mVideoThreadRunning = false;
mVideoThreadWait.signal();
mVideoThreadWaitLock.unlock();
LOGV("runVideoThread X");
}
void *video_thread(void *user)
{
LOGV("video_thread E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->runVideoThread(user);
}
else LOGE("not starting video thread: the object went away!");
LOGV("video_thread X");
return NULL;
}
void *frame_thread(void *user)
{
LOGD("frame_thread E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->runFrameThread(user);
}
else LOGW("not starting frame thread: the object went away!");
LOGD("frame_thread X");
return NULL;
}
static int parse_size(const char *str, int &width, int &height)
{
// Find the width.
char *end;
int w = (int)strtol(str, &end, 10);
// If an 'x' or 'X' does not immediately follow, give up.
if ( (*end != 'x') && (*end != 'X') )
return -1;
// Find the height, immediately after the 'x'.
int h = (int)strtol(end+1, 0, 10);
width = w;
height = h;
return 0;
}
bool QualcommCameraHardware::initPreview()
{
// See comments in deinitPreview() for why we have to wait for the frame
// thread here, and why we can't use pthread_join().
const char * pmem_region;
mParameters.getPreviewSize(&previewWidth, &previewHeight);
//Get the Record sizes
const char *recordSize = NULL;
recordSize = mParameters.get("record-size");
if(!recordSize) {
//If application didn't set this parameter string, use the values from
//getPreviewSize() as video dimensions.
LOGV("No Record Size requested, use the preview dimensions");
videoWidth = previewWidth;
videoHeight = previewHeight;
} else {
//Extract the record witdh and height that application requested.
if(!parse_size(recordSize, videoWidth, videoHeight)) {
//VFE output1 shouldn't be greater than VFE output2.
if( (previewWidth > videoWidth) || (previewHeight > videoHeight)) {
//Set preview sizes as record sizes.
LOGI("Preview size %dx%d is greater than record size %dx%d,\
resetting preview size to record size",previewWidth,\
previewHeight, videoWidth, videoHeight);
previewWidth = videoWidth;
previewHeight = videoHeight;
mParameters.setPreviewSize(previewWidth, previewHeight);
}
if( (mCurrentTarget != TARGET_MSM7630)
&& (mCurrentTarget != TARGET_QSD8250)
&& (mCurrentTarget != TARGET_MSM8660) ) {
//For Single VFE output targets, use record dimensions as preview dimensions.
previewWidth = videoWidth;
previewHeight = videoHeight;
mParameters.setPreviewSize(previewWidth, previewHeight);
}
} else {
LOGE("initPreview X: failed to parse parameter record-size (%s)", recordSize);
return false;
}
}
mDimension.display_width = previewWidth;
mDimension.display_height= previewHeight;
LOGV("initPreview E: preview size=%dx%d videosize = %d x %d", previewWidth, previewHeight, videoWidth, videoHeight );
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
mDimension.video_width = CEILING16(videoWidth);
/* Backup the video dimensions, as video dimensions in mDimension
* will be modified when DIS is supported. Need the actual values
* to pass ap part of VPE config
*/
videoWidth = mDimension.video_width;
mDimension.video_height = videoHeight;
LOGV("initPreview : preview size=%dx%d videosize = %d x %d", previewWidth, previewHeight, mDimension.video_width, mDimension.video_height );
}
mFrameThreadWaitLock.lock();
while (mFrameThreadRunning) {
LOGV("initPreview: waiting for old frame thread to complete.");
mFrameThreadWait.wait(mFrameThreadWaitLock);
LOGV("initPreview: old frame thread completed.");
}
mFrameThreadWaitLock.unlock();
mInSnapshotModeWaitLock.lock();
while (mInSnapshotMode) {
LOGV("initPreview: waiting for snapshot mode to complete.");
mInSnapshotModeWait.wait(mInSnapshotModeWaitLock);
LOGV("initPreview: snapshot mode completed.");
}
mInSnapshotModeWaitLock.unlock();
/*Temporary migrating the preview buffers to smi pool for 8x60 till the bug is resolved in the pmem_adsp pool*/
if(mCurrentTarget == TARGET_MSM8660)
pmem_region = "/dev/pmem_smipool";
else
pmem_region = "/dev/pmem_adsp";
int cnt = 0;
mPreviewFrameSize = previewWidth * previewHeight * 3/2;
int CbCrOffset = PAD_TO_WORD(previewWidth * previewHeight);
//Pass the yuv formats, display dimensions,
//so that vfe will be initialized accordingly.
mDimension.display_luma_width = previewWidth;
mDimension.display_luma_height = previewHeight;
mDimension.display_chroma_width = previewWidth;
mDimension.display_chroma_height = previewHeight;
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO) {
mPreviewFrameSize = PAD_TO_4K(CEILING32(previewWidth) * CEILING32(previewHeight)) +
2 * (CEILING32(previewWidth/2) * CEILING32(previewHeight/2));
CbCrOffset = PAD_TO_4K(CEILING32(previewWidth) * CEILING32(previewHeight));
mDimension.prev_format = CAMERA_YUV_420_NV21_ADRENO;
mDimension.display_luma_width = CEILING32(previewWidth);
mDimension.display_luma_height = CEILING32(previewHeight);
mDimension.display_chroma_width = 2 * CEILING32(previewWidth/2);
//Chroma Height is not needed as of now. Just sending with other dimensions.
mDimension.display_chroma_height = CEILING32(previewHeight/2);
}
LOGV("mDimension.prev_format = %d", mDimension.prev_format);
LOGV("mDimension.display_luma_width = %d", mDimension.display_luma_width);
LOGV("mDimension.display_luma_height = %d", mDimension.display_luma_height);
LOGV("mDimension.display_chroma_width = %d", mDimension.display_chroma_width);
LOGV("mDimension.display_chroma_height = %d", mDimension.display_chroma_height);
dstOffset = 0;
mPreviewHeap = new PmemPool(pmem_region,
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_PREVIEW, //MSM_PMEM_OUTPUT2,
mPreviewFrameSize,
kPreviewBufferCountActual,
mPreviewFrameSize,
CbCrOffset,
0,
"preview");
if (!mPreviewHeap->initialized()) {
mPreviewHeap.clear();
LOGE("initPreview X: could not initialize Camera preview heap.");
return false;
}
//set DIS value to get the updated video width and height to calculate
//the required record buffer size
if(mVpeEnabled) {
bool status = setDIS();
if(status) {
LOGE("Failed to set DIS");
return false;
}
}
//Pass the original video width and height and get the required width
//and height for record buffer allocation
mDimension.orig_video_width = videoWidth;
mDimension.orig_video_height = videoHeight;
// mDimension will be filled with thumbnail_width, thumbnail_height,
// orig_picture_dx, and orig_picture_dy after this function call. We need to
// keep it for jpeg_encoder_encode.
bool ret = native_set_parms(CAMERA_PARM_DIMENSION,
sizeof(cam_ctrl_dimension_t), &mDimension);
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
// Allocate video buffers after allocating preview buffers.
bool status = initRecord();
if(status != true) {
LOGE("Failed to allocate video bufers");
return false;
}
}
if (ret) {
for (cnt = 0; cnt < kPreviewBufferCount; cnt++) {
frames[cnt].fd = mPreviewHeap->mHeap->getHeapID();
frames[cnt].buffer =
(uint32_t)mPreviewHeap->mHeap->base() + mPreviewHeap->mAlignedBufferSize * cnt;
frames[cnt].y_off = 0;
frames[cnt].cbcr_off = CbCrOffset;
frames[cnt].path = OUTPUT_TYPE_P; // MSM_FRAME_ENC;
}
mFrameThreadWaitLock.lock();
pthread_attr_t attr;
pthread_attr_init(&attr);
pthread_attr_setdetachstate(&attr, PTHREAD_CREATE_DETACHED);
frame_parms.frame = frames[kPreviewBufferCount - 1];
if( mCurrentTarget == TARGET_MSM7630 || mCurrentTarget == TARGET_QSD8250 || mCurrentTarget == TARGET_MSM8660)
frame_parms.video_frame = recordframes[kPreviewBufferCount - 1];
else
frame_parms.video_frame = frames[kPreviewBufferCount - 1];
LOGV ("initpreview before cam_frame thread carete , video frame buffer=%lu fd=%d y_off=%d cbcr_off=%d \n",
(unsigned long)frame_parms.video_frame.buffer, frame_parms.video_frame.fd, frame_parms.video_frame.y_off,
frame_parms.video_frame.cbcr_off);
mFrameThreadRunning = !pthread_create(&mFrameThread,
&attr,
frame_thread,
(void*)&(frame_parms));
ret = mFrameThreadRunning;
mFrameThreadWaitLock.unlock();
}
mFirstFrame = true;
LOGV("initPreview X: %d", ret);
return ret;
}
void QualcommCameraHardware::deinitPreview(void)
{
LOGI("deinitPreview E");
// When we call deinitPreview(), we signal to the frame thread that it
// needs to exit, but we DO NOT WAIT for it to complete here. The problem
// is that deinitPreview is sometimes called from the frame-thread's
// callback, when the refcount on the Camera client reaches zero. If we
// called pthread_join(), we would deadlock. So, we just call
// LINK_camframe_terminate() in deinitPreview(), which makes sure that
// after the preview callback returns, the camframe thread will exit. We
// could call pthread_join() in initPreview() to join the last frame
// thread. However, we would also have to call pthread_join() in release
// as well, shortly before we destroy the object; this would cause the same
// deadlock, since release(), like deinitPreview(), may also be called from
// the frame-thread's callback. This we have to make the frame thread
// detached, and use a separate mechanism to wait for it to complete.
LINK_camframe_terminate();
LOGI("deinitPreview X");
}
bool QualcommCameraHardware::initRawSnapshot()
{
LOGV("initRawSnapshot E");
const char * pmem_region;
//get width and height from Dimension Object
bool ret = native_set_parms(CAMERA_PARM_DIMENSION,
sizeof(cam_ctrl_dimension_t), &mDimension);
if(!ret){
LOGE("initRawSnapshot X: failed to set dimension");
return false;
}
int rawSnapshotSize = mDimension.raw_picture_height *
mDimension.raw_picture_width;
LOGV("raw_snapshot_buffer_size = %d, raw_picture_height = %d, "\
"raw_picture_width = %d",
rawSnapshotSize, mDimension.raw_picture_height,
mDimension.raw_picture_width);
if (mRawSnapShotPmemHeap != NULL) {
LOGV("initRawSnapshot: clearing old mRawSnapShotPmemHeap.");
mRawSnapShotPmemHeap.clear();
}
if(mCurrentTarget == TARGET_MSM8660)
pmem_region = "/dev/pmem_smipool";
else
pmem_region = "/dev/pmem_adsp";
//Pmem based pool for Camera Driver
mRawSnapShotPmemHeap = new PmemPool(pmem_region,
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_RAW_MAINIMG,
rawSnapshotSize,
1,
rawSnapshotSize,
0,
0,
"raw pmem snapshot camera");
if (!mRawSnapShotPmemHeap->initialized()) {
mRawSnapShotPmemHeap.clear();
LOGE("initRawSnapshot X: error initializing mRawSnapshotHeap");
return false;
}
LOGV("initRawSnapshot X");
return true;
}
bool QualcommCameraHardware::initRaw(bool initJpegHeap)
{
int rawWidth, rawHeight;
const char * pmem_region;
mParameters.getPictureSize(&rawWidth, &rawHeight);
LOGV("initRaw E: picture size=%dx%d", rawWidth, rawHeight);
int thumbnailBufferSize;
//Thumbnail height should be smaller than Picture height
if (rawHeight > (int)thumbnail_sizes[DEFAULT_THUMBNAIL_SETTING].height){
mDimension.ui_thumbnail_width =
thumbnail_sizes[DEFAULT_THUMBNAIL_SETTING].width;
mDimension.ui_thumbnail_height =
thumbnail_sizes[DEFAULT_THUMBNAIL_SETTING].height;
uint32_t pictureAspectRatio = (uint32_t)((rawWidth * Q12) / rawHeight);
uint32_t i;
for(i = 0; i < THUMBNAIL_SIZE_COUNT; i++ )
{
if(thumbnail_sizes[i].aspect_ratio == pictureAspectRatio)
{
mDimension.ui_thumbnail_width = thumbnail_sizes[i].width;
mDimension.ui_thumbnail_height = thumbnail_sizes[i].height;
break;
}
}
}
else{
mDimension.ui_thumbnail_height = THUMBNAIL_SMALL_HEIGHT;
mDimension.ui_thumbnail_width =
(THUMBNAIL_SMALL_HEIGHT * rawWidth)/ rawHeight;
}
if((mCurrentTarget == TARGET_MSM7630) ||
(mCurrentTarget == TARGET_MSM7627) ||
(mCurrentTarget == TARGET_MSM8660)) {
if(rawHeight < previewHeight) {
mDimension.ui_thumbnail_height = THUMBNAIL_SMALL_HEIGHT;
mDimension.ui_thumbnail_width =
(THUMBNAIL_SMALL_HEIGHT * rawWidth)/ rawHeight;
}
/* store the thumbanil dimensions which are needed
* by the jpeg downscaler to generate thumbnails from
* main YUV image.
*/
mThumbnailWidth = mDimension.ui_thumbnail_width;
mThumbnailHeight = mDimension.ui_thumbnail_height;
/* As thumbnail is generated from main YUV image,
* configure and use the VFE other output to get
* an image of preview dimensions for postView use.
* So, mThumbnailHeap will be used for postview rather than
* as thumbnail(Not changing the terminology to keep changes minimum).
*/
if((rawHeight >= previewHeight) &&
(mCurrentTarget != TARGET_MSM7627)) {
mDimension.ui_thumbnail_height = previewHeight;
mDimension.ui_thumbnail_width =
(previewHeight * rawWidth) / rawHeight;
}
}
LOGV("Thumbnail Size Width %d Height %d",
mDimension.ui_thumbnail_width,
mDimension.ui_thumbnail_height);
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO){
mDimension.main_img_format = CAMERA_YUV_420_NV21_ADRENO;
mDimension.thumb_format = CAMERA_YUV_420_NV21_ADRENO;
}
// mDimension will be filled with thumbnail_width, thumbnail_height,
// orig_picture_dx, and orig_picture_dy after this function call. We need to
// keep it for jpeg_encoder_encode.
bool ret = native_set_parms(CAMERA_PARM_DIMENSION,
sizeof(cam_ctrl_dimension_t), &mDimension);
if(!ret) {
LOGE("initRaw X: failed to set dimension");
return false;
}
thumbnailBufferSize = mDimension.ui_thumbnail_width *
mDimension.ui_thumbnail_height * 3 / 2;
int CbCrOffsetThumb = PAD_TO_WORD(mDimension.ui_thumbnail_width *
mDimension.ui_thumbnail_height);
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO){
thumbnailBufferSize = PAD_TO_4K(CEILING32(mDimension.ui_thumbnail_width) *
CEILING32(mDimension.ui_thumbnail_height)) +
2 * (CEILING32(mDimension.ui_thumbnail_width/2) *
CEILING32(mDimension.ui_thumbnail_height/2));
CbCrOffsetThumb = PAD_TO_4K(CEILING32(mDimension.ui_thumbnail_width) *
CEILING32(mDimension.ui_thumbnail_height));
}
if (mJpegHeap != NULL) {
LOGV("initRaw: clearing old mJpegHeap.");
mJpegHeap.clear();
}
// Snapshot
mRawSize = rawWidth * rawHeight * 3 / 2;
mCbCrOffsetRaw = PAD_TO_WORD(rawWidth * rawHeight);
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO) {
mRawSize = PAD_TO_4K(CEILING32(rawWidth) * CEILING32(rawHeight)) +
2 * (CEILING32(rawWidth/2) * CEILING32(rawHeight/2));
mCbCrOffsetRaw = PAD_TO_4K(CEILING32(rawWidth) * CEILING32(rawHeight));
}
if( mCurrentTarget == TARGET_MSM7627 )
mJpegMaxSize = CEILING16(rawWidth) * CEILING16(rawHeight) * 3 / 2;
else {
mJpegMaxSize = rawWidth * rawHeight * 3 / 2;
if(mPreviewFormat == CAMERA_YUV_420_NV21_ADRENO){
mJpegMaxSize =
PAD_TO_4K(CEILING32(rawWidth) * CEILING32(rawHeight)) +
2 * (CEILING32(rawWidth/2) * CEILING32(rawHeight/2));
}
}
//For offline jpeg hw encoder, jpeg encoder will provide us the
//required offsets and buffer size depending on the rotation.
int yOffset = 0;
if( (mCurrentTarget == TARGET_MSM7630) || (mCurrentTarget == TARGET_MSM7627) || (mCurrentTarget == TARGET_MSM8660)) {
int rotation = mParameters.getInt("rotation");
if (rotation >= 0) {
LOGV("initRaw, jpeg_rotation = %d", rotation);
if(!LINK_jpeg_encoder_setRotation(rotation)) {
LOGE("native_jpeg_encode set rotation failed");
return false;
}
}
//Don't call the get_buffer_offset() for ADRENO, as the width and height
//for Adreno format will be of CEILING32.
if(mPreviewFormat != CAMERA_YUV_420_NV21_ADRENO) {
LINK_jpeg_encoder_get_buffer_offset(rawWidth, rawHeight, (uint32_t *)&yOffset,
(uint32_t *)&mCbCrOffsetRaw, (uint32_t *)&mRawSize);
mJpegMaxSize = mRawSize;
}
LOGV("initRaw: yOffset = %d, mCbCrOffsetRaw = %d, mRawSize = %d",
yOffset, mCbCrOffsetRaw, mRawSize);
}
if(mCurrentTarget == TARGET_MSM8660)
pmem_region = "/dev/pmem_smipool";
else
pmem_region = "/dev/pmem_adsp";
LOGV("initRaw: initializing mRawHeap.");
mRawHeap =
new PmemPool(pmem_region,
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_MAINIMG,
mJpegMaxSize,
kRawBufferCount,
mRawSize,
mCbCrOffsetRaw,
yOffset,
"snapshot camera");
if (!mRawHeap->initialized()) {
LOGE("initRaw X failed ");
mRawHeap.clear();
LOGE("initRaw X: error initializing mRawHeap");
return false;
}
//This is kind of workaround for the GPU limitation, as it can't
//output in line to correct NV21 adreno formula for some snapshot
//sizes (like 3264x2448). This change of cbcr offset will ensure that
//chroma plane always starts at the beginning of a row.
if(mPreviewFormat != CAMERA_YUV_420_NV21_ADRENO)
mCbCrOffsetRaw = CEILING32(rawWidth) * CEILING32(rawHeight);
LOGV("do_mmap snapshot pbuf = %p, pmem_fd = %d",
(uint8_t *)mRawHeap->mHeap->base(), mRawHeap->mHeap->getHeapID());
// Jpeg
if (initJpegHeap) {
LOGV("initRaw: initializing mJpegHeap.");
mJpegHeap =
new AshmemPool(mJpegMaxSize,
kJpegBufferCount,
0, // we do not know how big the picture will be
"jpeg");
if (!mJpegHeap->initialized()) {
mJpegHeap.clear();
mRawHeap.clear();
LOGE("initRaw X failed: error initializing mJpegHeap.");
return false;
}
// Thumbnails
/* With the recent jpeg encoder downscaling changes for thumbnail padding,
* HAL needs to call this API to get the offsets and buffer size.
*/
int yOffsetThumb = 0;
if((mPreviewFormat != CAMERA_YUV_420_NV21_ADRENO)
&& (mCurrentTarget != TARGET_MSM7630)
&& (mCurrentTarget != TARGET_MSM8660)) {
LINK_jpeg_encoder_get_buffer_offset(mDimension.thumbnail_width,
mDimension.thumbnail_height,
(uint32_t *)&yOffsetThumb,
(uint32_t *)&CbCrOffsetThumb,
(uint32_t *)&thumbnailBufferSize);
}
pmem_region = "/dev/pmem_adsp";
mThumbnailHeap =
new PmemPool(pmem_region,
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_THUMBNAIL,
thumbnailBufferSize,
1,
thumbnailBufferSize,
CbCrOffsetThumb,
yOffsetThumb,
"thumbnail");
if (!mThumbnailHeap->initialized()) {
mThumbnailHeap.clear();
mJpegHeap.clear();
mRawHeap.clear();
LOGE("initRaw X failed: error initializing mThumbnailHeap.");
return false;
}
}
LOGV("initRaw X");
return true;
}
void QualcommCameraHardware::deinitRawSnapshot()
{
LOGV("deinitRawSnapshot E");
mRawSnapShotPmemHeap.clear();
LOGV("deinitRawSnapshot X");
}
void QualcommCameraHardware::deinitRaw()
{
LOGV("deinitRaw E");
mJpegHeap.clear();
mRawHeap.clear();
if(mCurrentTarget != TARGET_MSM8660){
mThumbnailHeap.clear();
mDisplayHeap.clear();
}
LOGV("deinitRaw X");
}
void QualcommCameraHardware::release()
{
LOGI("release E");
Mutex::Autolock l(&mLock);
#if DLOPEN_LIBMMCAMERA
if (libmmcamera == NULL) {
LOGE("ERROR: multiple release!");
return;
}
#else
#warning "Cannot detect multiple release when not dlopen()ing libqcamera!"
#endif
int cnt, rc;
struct msm_ctrl_cmd ctrlCmd;
LOGI("release: mCameraRunning = %d", mCameraRunning);
if (mCameraRunning) {
if(mDataCallbackTimestamp && (mMsgEnabled & CAMERA_MSG_VIDEO_FRAME)) {
mRecordFrameLock.lock();
mReleasedRecordingFrame = true;
mRecordWait.signal();
mRecordFrameLock.unlock();
}
stopPreviewInternal();
LOGI("release: stopPreviewInternal done.");
}
if(mCurrentTarget == TARGET_MSM8660) {
LOGV("release : Clearing the mThumbnailHeap and mDisplayHeap");
mPostViewHeap.clear();
mPostViewHeap = NULL;
mThumbnailHeap.clear();
mThumbnailHeap = NULL;
mDisplayHeap.clear();
mDisplayHeap = NULL;
}
LINK_jpeg_encoder_join();
//Signal the snapshot thread
mJpegThreadWaitLock.lock();
mJpegThreadRunning = false;
mJpegThreadWait.signal();
mJpegThreadWaitLock.unlock();
// Wait for snapshot thread to complete before clearing the
// resources.
mSnapshotThreadWaitLock.lock();
while (mSnapshotThreadRunning) {
LOGV("takePicture: waiting for old snapshot thread to complete.");
mSnapshotThreadWait.wait(mSnapshotThreadWaitLock);
LOGV("takePicture: old snapshot thread completed.");
}
mSnapshotThreadWaitLock.unlock();
{
Mutex::Autolock l (&mRawPictureHeapLock);
deinitRaw();
}
deinitRawSnapshot();
LOGI("release: clearing resources done.");
LINK_mm_camera_deinit(&mCfgControl, &mCamNotify, &mCamOps);
close(mCameraControlFd);
mCameraControlFd = -1;
if(fb_fd >= 0) {
close(fb_fd);
fb_fd = -1;
}
#if DLOPEN_LIBMMCAMERA
if (libmmcamera) {
::dlclose(libmmcamera);
LOGV("dlclose(libqcamera)");
libmmcamera = NULL;
}
#endif
singleton_lock.lock();
singleton_releasing = true;
singleton_releasing_start_time = systemTime();
singleton_lock.unlock();
LOGI("release X: mCameraRunning = %d, mFrameThreadRunning = %d", mCameraRunning, mFrameThreadRunning);
LOGI("mVideoThreadRunning = %d, mSnapshotThreadRunning = %d, mJpegThreadRunning = %d", mVideoThreadRunning, mSnapshotThreadRunning, mJpegThreadRunning);
LOGI("camframe_timeout_flag = %d, mAutoFocusThreadRunning = %d", camframe_timeout_flag, mAutoFocusThreadRunning);
}
QualcommCameraHardware::~QualcommCameraHardware()
{
LOGI("~QualcommCameraHardware E");
singleton_lock.lock();
if( mCurrentTarget == TARGET_MSM7630 || mCurrentTarget == TARGET_QSD8250 || mCurrentTarget == TARGET_MSM8660 ) {
delete [] recordframes;
recordframes = NULL;
delete [] record_buffers_tracking_flag;
record_buffers_tracking_flag = NULL;
}
singleton.clear();
singleton_releasing = false;
singleton_releasing_start_time = 0;
singleton_wait.signal();
singleton_lock.unlock();
LOGI("~QualcommCameraHardware X");
}
sp<IMemoryHeap> QualcommCameraHardware::getRawHeap() const
{
LOGV("getRawHeap");
return mDisplayHeap != NULL ? mDisplayHeap->mHeap : NULL;
}
sp<IMemoryHeap> QualcommCameraHardware::getPreviewHeap() const
{
LOGV("getPreviewHeap");
return mPreviewHeap != NULL ? mPreviewHeap->mHeap : NULL;
}
status_t QualcommCameraHardware::startPreviewInternal()
{
LOGV("in startPreviewInternal : E");
if(mCameraRunning) {
LOGV("startPreview X: preview already running.");
return NO_ERROR;
}
if (!mPreviewInitialized) {
mLastQueuedFrame = NULL;
mPreviewInitialized = initPreview();
if (!mPreviewInitialized) {
LOGE("startPreview X initPreview failed. Not starting preview.");
return UNKNOWN_ERROR;
}
}
{
Mutex::Autolock cameraRunningLock(&mCameraRunningLock);
if(( mCurrentTarget != TARGET_MSM7630 ) &&
(mCurrentTarget != TARGET_QSD8250) && (mCurrentTarget != TARGET_MSM8660))
mCameraRunning = native_start_ops(CAMERA_OPS_STREAMING_PREVIEW, NULL);
else
mCameraRunning = native_start_ops(CAMERA_OPS_STREAMING_VIDEO, NULL);
}
if(!mCameraRunning) {
deinitPreview();
mPreviewInitialized = false;
mOverlay = NULL;
LOGE("startPreview X: native_start_ops: CAMERA_OPS_STREAMING_PREVIEW ioctl failed!");
return UNKNOWN_ERROR;
}
//Reset the Gps Information
exif_table_numEntries = 0;
LOGV("startPreviewInternal X");
return NO_ERROR;
}
status_t QualcommCameraHardware::startPreview()
{
LOGV("startPreview E");
Mutex::Autolock l(&mLock);
return startPreviewInternal();
}
void QualcommCameraHardware::stopPreviewInternal()
{
LOGI("stopPreviewInternal E: %d", mCameraRunning);
if (mCameraRunning) {
// Cancel auto focus.
{
if (mNotifyCallback && (mMsgEnabled & CAMERA_MSG_FOCUS)) {
cancelAutoFocusInternal();
}
}
Mutex::Autolock l(&mCamframeTimeoutLock);
{
Mutex::Autolock cameraRunningLock(&mCameraRunningLock);
if(!camframe_timeout_flag) {
if (( mCurrentTarget != TARGET_MSM7630 ) &&
(mCurrentTarget != TARGET_QSD8250) && (mCurrentTarget != TARGET_MSM8660))
mCameraRunning = !native_stop_ops(CAMERA_OPS_STREAMING_PREVIEW, NULL);
else
mCameraRunning = !native_stop_ops(CAMERA_OPS_STREAMING_VIDEO, NULL);
} else {
/* This means that the camframetimeout was issued.
* But we did not issue native_stop_preview(), so we
* need to update mCameraRunning to indicate that
* Camera is no longer running. */
mCameraRunning = 0;
}
}
if (!mCameraRunning && mPreviewInitialized) {
deinitPreview();
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
mVideoThreadWaitLock.lock();
LOGV("in stopPreviewInternal: making mVideoThreadExit 1");
mVideoThreadExit = 1;
mVideoThreadWaitLock.unlock();
// 720p : signal the video thread , and check in video thread if stop is called, if so exit video thread.
pthread_mutex_lock(&(g_busy_frame_queue.mut));
pthread_cond_signal(&(g_busy_frame_queue.wait));
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
/* Flush the Busy Q */
cam_frame_flush_video();
/* Flush the Free Q */
LINK_cam_frame_flush_free_video();
}
mPreviewInitialized = false;
}
else LOGE("stopPreviewInternal: failed to stop preview");
}
LOGI("stopPreviewInternal X: %d", mCameraRunning);
}
void QualcommCameraHardware::stopPreview()
{
LOGV("stopPreview: E");
Mutex::Autolock l(&mLock);
{
if (mDataCallbackTimestamp && (mMsgEnabled & CAMERA_MSG_VIDEO_FRAME))
return;
}
stopPreviewInternal();
LOGV("stopPreview: X");
}
void QualcommCameraHardware::runAutoFocus()
{
bool status = true;
void *libhandle = NULL;
isp3a_af_mode_t afMode;
mAutoFocusThreadLock.lock();
// Skip autofocus if focus mode is infinity.
if ((mParameters.get(CameraParameters::KEY_FOCUS_MODE) == 0)
|| (strcmp(mParameters.get(CameraParameters::KEY_FOCUS_MODE),
CameraParameters::FOCUS_MODE_INFINITY) == 0)) {
goto done;
}
#if DLOPEN_LIBMMCAMERA
// We need to maintain a reference to libqcamera.so for the duration of the
// AF thread, because we do not know when it will exit relative to the
// lifetime of this object. We do not want to dlclose() libqcamera while
// LINK_cam_frame is still running.
libhandle = ::dlopen("liboemcamera.so", RTLD_NOW);
LOGV("AF: loading libqcamera at %p", libhandle);
if (!libhandle) {
LOGE("FATAL ERROR: could not dlopen liboemcamera.so: %s", dlerror());
mAutoFocusThreadRunning = false;
mAutoFocusThreadLock.unlock();
return;
}
#endif
afMode = (isp3a_af_mode_t)attr_lookup(focus_modes,
sizeof(focus_modes) / sizeof(str_map),
mParameters.get(CameraParameters::KEY_FOCUS_MODE));
/* This will block until either AF completes or is cancelled. */
LOGV("af start (mode %d)", afMode);
status_t err;
err = mAfLock.tryLock();
if(err == NO_ERROR) {
{
Mutex::Autolock cameraRunningLock(&mCameraRunningLock);
if(mCameraRunning){
LOGV("Start AF");
status = native_start_ops(CAMERA_OPS_FOCUS ,(void *)&afMode);
}else{
LOGV("As Camera preview is not running, AF not issued");
status = false;
}
}
mAfLock.unlock();
}
else{
//AF Cancel would have acquired the lock,
//so, no need to perform any AF
LOGV("As Cancel auto focus is in progress, auto focus request "
"is ignored");
status = FALSE;
}
LOGV("af done: %d", (int)status);
done:
mAutoFocusThreadRunning = false;
mAutoFocusThreadLock.unlock();
mCallbackLock.lock();
bool autoFocusEnabled = mNotifyCallback && (mMsgEnabled & CAMERA_MSG_FOCUS);
notify_callback cb = mNotifyCallback;
void *data = mCallbackCookie;
mCallbackLock.unlock();
if (autoFocusEnabled)
cb(CAMERA_MSG_FOCUS, status, 0, data);
#if DLOPEN_LIBMMCAMERA
if (libhandle) {
::dlclose(libhandle);
LOGV("AF: dlclose(libqcamera)");
}
#endif
}
status_t QualcommCameraHardware::cancelAutoFocusInternal()
{
LOGV("cancelAutoFocusInternal E");
if(!mHasAutoFocusSupport){
LOGV("cancelAutoFocusInternal X");
return NO_ERROR;
}
status_t rc = NO_ERROR;
status_t err;
err = mAfLock.tryLock();
if(err == NO_ERROR) {
//Got Lock, means either AF hasn't started or
// AF is done. So no need to cancel it, just change the state
LOGV("As Auto Focus is not in progress, Cancel Auto Focus "
"is ignored");
mAfLock.unlock();
}
else {
//AF is in Progess, So cancel it
LOGV("Lock busy...cancel AF");
rc = native_stop_ops(CAMERA_OPS_FOCUS, NULL) ?
NO_ERROR :
UNKNOWN_ERROR;
}
LOGV("cancelAutoFocusInternal X: %d", rc);
return rc;
}
void *auto_focus_thread(void *user)
{
LOGV("auto_focus_thread E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->runAutoFocus();
}
else LOGW("not starting autofocus: the object went away!");
LOGV("auto_focus_thread X");
return NULL;
}
status_t QualcommCameraHardware::autoFocus()
{
LOGV("autoFocus E");
Mutex::Autolock l(&mLock);
if(!mHasAutoFocusSupport){
bool status = false;
mCallbackLock.lock();
bool autoFocusEnabled = mNotifyCallback && (mMsgEnabled & CAMERA_MSG_FOCUS);
notify_callback cb = mNotifyCallback;
void *data = mCallbackCookie;
mCallbackLock.unlock();
if (autoFocusEnabled)
cb(CAMERA_MSG_FOCUS, status, 0, data);
LOGV("autoFocus X");
return NO_ERROR;
}
if (mCameraControlFd < 0) {
LOGE("not starting autofocus: main control fd %d", mCameraControlFd);
return UNKNOWN_ERROR;
}
{
mAutoFocusThreadLock.lock();
if (!mAutoFocusThreadRunning) {
// Create a detached thread here so that we don't have to wait
// for it when we cancel AF.
pthread_t thr;
pthread_attr_t attr;
pthread_attr_init(&attr);
pthread_attr_setdetachstate(&attr, PTHREAD_CREATE_DETACHED);
mAutoFocusThreadRunning =
!pthread_create(&thr, &attr,
auto_focus_thread, NULL);
if (!mAutoFocusThreadRunning) {
LOGE("failed to start autofocus thread");
mAutoFocusThreadLock.unlock();
return UNKNOWN_ERROR;
}
}
mAutoFocusThreadLock.unlock();
}
LOGV("autoFocus X");
return NO_ERROR;
}
status_t QualcommCameraHardware::cancelAutoFocus()
{
LOGV("cancelAutoFocus E");
Mutex::Autolock l(&mLock);
int rc = NO_ERROR;
if (mCameraRunning && mNotifyCallback && (mMsgEnabled & CAMERA_MSG_FOCUS)) {
rc = cancelAutoFocusInternal();
}
LOGV("cancelAutoFocus X");
return rc;
}
void QualcommCameraHardware::runSnapshotThread(void *data)
{
bool ret = true;
LOGV("runSnapshotThread E");
#if DLOPEN_LIBMMCAMERA
// We need to maintain a reference to libqcamera.so for the duration of the
// Snapshot thread, because we do not know when it will exit relative to the
// lifetime of this object. We do not want to dlclose() libqcamera while
// LINK_cam_frame is still running.
void *libhandle = ::dlopen("liboemcamera.so", RTLD_NOW);
LOGV("SNAPSHOT: loading libqcamera at %p", libhandle);
if (!libhandle) {
LOGE("FATAL ERROR: could not dlopen liboemcamera.so: %s", dlerror());
}
#endif
if(mSnapshotFormat == PICTURE_FORMAT_JPEG){
if (native_start_ops(CAMERA_OPS_SNAPSHOT, NULL))
ret = receiveRawPicture();
else {
LOGE("main: snapshot failed! [CAMERA_OPS_SNAPSHOT]");
ret = false;
}
} else if(mSnapshotFormat == PICTURE_FORMAT_RAW){
if (native_start_ops(CAMERA_OPS_RAW_SNAPSHOT, NULL)) {
ret = receiveRawSnapshot();
} else {
LOGE("main: raw_snapshot failed! [ CAMERA_OPS_RAW_SNAPSHOT]");
ret = false;
}
}
mInSnapshotModeWaitLock.lock();
mInSnapshotMode = false;
mInSnapshotModeWait.signal();
mInSnapshotModeWaitLock.unlock();
mSnapshotFormat = 0;
if(strTexturesOn != true ) {
mJpegThreadWaitLock.lock();
while (mJpegThreadRunning) {
LOGV("runSnapshotThread: waiting for jpeg thread to complete.");
mJpegThreadWait.wait(mJpegThreadWaitLock);
LOGV("runSnapshotThread: jpeg thread completed.");
}
mJpegThreadWaitLock.unlock();
//clear the resources
#if DLOPEN_LIBMMCAMERA
if(libhandle)
#endif
{
LINK_jpeg_encoder_join();
}
deinitRaw();
}
mSnapshotThreadWaitLock.lock();
mSnapshotThreadRunning = false;
mSnapshotThreadWait.signal();
mSnapshotThreadWaitLock.unlock();
#if DLOPEN_LIBMMCAMERA
if (libhandle) {
::dlclose(libhandle);
LOGV("SNAPSHOT: dlclose(libqcamera)");
}
#endif
if( (ret == false) && mDataCallback
&& (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE)) {
/* get picture failed. Give jpeg callback with NULL data
* to the application to restore to preview mode
*/
LOGE("get picture failed, giving jpeg callback with NULL data");
mDataCallback(CAMERA_MSG_COMPRESSED_IMAGE, NULL, mCallbackCookie);
}
LOGV("runSnapshotThread X");
}
void *snapshot_thread(void *user)
{
LOGD("snapshot_thread E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->runSnapshotThread(user);
}
else LOGW("not starting snapshot thread: the object went away!");
LOGD("snapshot_thread X");
return NULL;
}
status_t QualcommCameraHardware::takePicture()
{
LOGV("takePicture(%d)", mMsgEnabled);
Mutex::Autolock l(&mLock);
if(strTexturesOn == true){
mEncodePendingWaitLock.lock();
while(mEncodePending) {
LOGE("takePicture: Frame given to application, waiting for encode call");
mEncodePendingWait.wait(mEncodePendingWaitLock);
LOGE("takePicture: Encode of the application data is done");
}
mEncodePendingWaitLock.unlock();
}
// Wait for old snapshot thread to complete.
mSnapshotThreadWaitLock.lock();
while (mSnapshotThreadRunning) {
LOGV("takePicture: waiting for old snapshot thread to complete.");
mSnapshotThreadWait.wait(mSnapshotThreadWaitLock);
LOGV("takePicture: old snapshot thread completed.");
}
//mSnapshotFormat is protected by mSnapshotThreadWaitLock
if(mParameters.getPictureFormat() != 0 &&
!strcmp(mParameters.getPictureFormat(),
CameraParameters::PIXEL_FORMAT_RAW))
mSnapshotFormat = PICTURE_FORMAT_RAW;
else
mSnapshotFormat = PICTURE_FORMAT_JPEG;
if(mSnapshotFormat == PICTURE_FORMAT_JPEG){
if(!native_start_ops(CAMERA_OPS_PREPARE_SNAPSHOT, NULL)) {
mSnapshotThreadWaitLock.unlock();
LOGE("PREPARE SNAPSHOT: CAMERA_OPS_PREPARE_SNAPSHOT ioctl Failed");
return UNKNOWN_ERROR;
}
}
if(mCurrentTarget == TARGET_MSM8660) {
/* Store the last frame queued for preview. This
* shall be used as postview */
if (!(storePreviewFrameForPostview()))
return UNKNOWN_ERROR;
}
stopPreviewInternal();
if(mSnapshotFormat == PICTURE_FORMAT_JPEG){
if (!initRaw(mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE))) {
LOGE("initRaw failed. Not taking picture.");
mSnapshotThreadWaitLock.unlock();
return UNKNOWN_ERROR;
}
} else if(mSnapshotFormat == PICTURE_FORMAT_RAW ){
if(!initRawSnapshot()){
LOGE("initRawSnapshot failed. Not taking picture.");
mSnapshotThreadWaitLock.unlock();
return UNKNOWN_ERROR;
}
}
mShutterLock.lock();
mShutterPending = true;
mShutterLock.unlock();
pthread_attr_t attr;
pthread_attr_init(&attr);
pthread_attr_setdetachstate(&attr, PTHREAD_CREATE_DETACHED);
mSnapshotThreadRunning = !pthread_create(&mSnapshotThread,
&attr,
snapshot_thread,
NULL);
mSnapshotThreadWaitLock.unlock();
mInSnapshotModeWaitLock.lock();
mInSnapshotMode = true;
mInSnapshotModeWaitLock.unlock();
LOGV("takePicture: X");
return mSnapshotThreadRunning ? NO_ERROR : UNKNOWN_ERROR;
}
void QualcommCameraHardware::set_liveshot_exifinfo()
{
setGpsParameters();
//set TimeStamp
const char *str = mParameters.get(CameraParameters::KEY_EXIF_DATETIME);
if(str != NULL) {
strncpy(dateTime, str, 19);
dateTime[19] = '\0';
addExifTag(EXIFTAGID_EXIF_DATE_TIME_ORIGINAL, EXIF_ASCII,
20, 1, (void *)dateTime);
}
}
status_t QualcommCameraHardware::takeLiveSnapshot()
{
LOGV("takeLiveSnapshot: E ");
Mutex::Autolock l(&mLock);
if(liveshot_state == LIVESHOT_IN_PROGRESS || !recordingState) {
return NO_ERROR;
}
if( (mCurrentTarget != TARGET_MSM7630) && (mCurrentTarget != TARGET_MSM8660)) {
LOGI("LiveSnapshot not supported on this target");
liveshot_state = LIVESHOT_STOPPED;
return NO_ERROR;
}
liveshot_state = LIVESHOT_IN_PROGRESS;
if (!initLiveSnapshot(videoWidth, videoHeight)) {
LOGE("takeLiveSnapshot: Jpeg Heap Memory allocation failed. Not taking Live Snapshot.");
liveshot_state = LIVESHOT_STOPPED;
return UNKNOWN_ERROR;
}
uint32_t maxjpegsize = videoWidth * videoHeight *1.5;
set_liveshot_exifinfo();
if(!LINK_set_liveshot_params(videoWidth, videoHeight,
exif_data, exif_table_numEntries,
(uint8_t *)mJpegHeap->mHeap->base(), maxjpegsize)) {
LOGE("Link_set_liveshot_params failed.");
mJpegHeap.clear();
return NO_ERROR;
}
if(!native_start_ops(CAMERA_OPS_LIVESHOT, NULL)) {
LOGE("start_liveshot ioctl failed");
liveshot_state = LIVESHOT_STOPPED;
mJpegHeap.clear();
return UNKNOWN_ERROR;
}
LOGV("takeLiveSnapshot: X");
return NO_ERROR;
}
bool QualcommCameraHardware::initLiveSnapshot(int videowidth, int videoheight)
{
LOGV("initLiveSnapshot E");
if (mJpegHeap != NULL) {
LOGV("initLiveSnapshot: clearing old mJpegHeap.");
mJpegHeap.clear();
}
mJpegMaxSize = videowidth * videoheight * 1.5;
LOGV("initLiveSnapshot: initializing mJpegHeap.");
mJpegHeap =
new AshmemPool(mJpegMaxSize,
kJpegBufferCount,
0, // we do not know how big the picture will be
"jpeg");
if (!mJpegHeap->initialized()) {
mJpegHeap.clear();
LOGE("initLiveSnapshot X failed: error initializing mJpegHeap.");
return false;
}
LOGV("initLiveSnapshot X");
return true;
}
status_t QualcommCameraHardware::cancelPicture()
{
status_t rc;
LOGV("cancelPicture: E");
if (mCurrentTarget == TARGET_MSM7627) {
mSnapshotDone = TRUE;
mSnapshotThreadWaitLock.lock();
while (mSnapshotThreadRunning) {
LOGV("cancelPicture: waiting for snapshot thread to complete.");
mSnapshotThreadWait.wait(mSnapshotThreadWaitLock);
LOGV("cancelPicture: snapshot thread completed.");
}
mSnapshotThreadWaitLock.unlock();
}
rc = native_stop_ops(CAMERA_OPS_SNAPSHOT, NULL) ? NO_ERROR : UNKNOWN_ERROR;
mSnapshotDone = FALSE;
LOGV("cancelPicture: X: %d", rc);
return rc;
}
status_t QualcommCameraHardware::setParameters(const CameraParameters& params)
{
LOGV("setParameters: E params = %p", &params);
Mutex::Autolock l(&mLock);
status_t rc, final_rc = NO_ERROR;
if ((rc = setPreviewSize(params))) final_rc = rc;
if ((rc = setPictureSize(params))) final_rc = rc;
if ((rc = setJpegThumbnailSize(params))) final_rc = rc;
if ((rc = setJpegQuality(params))) final_rc = rc;
if ((rc = setEffect(params))) final_rc = rc;
if ((rc = setGpsLocation(params))) final_rc = rc;
if ((rc = setRotation(params))) final_rc = rc;
if ((rc = setZoom(params))) final_rc = rc;
if ((rc = setOrientation(params))) final_rc = rc;
if ((rc = setLensshadeValue(params))) final_rc = rc;
if ((rc = setPictureFormat(params))) final_rc = rc;
if ((rc = setSharpness(params))) final_rc = rc;
if ((rc = setSaturation(params))) final_rc = rc;
if ((rc = setContinuousAf(params))) final_rc = rc;
if ((rc = setSelectableZoneAf(params))) final_rc = rc;
if ((rc = setTouchAfAec(params))) final_rc = rc;
if ((rc = setSceneMode(params))) final_rc = rc;
if ((rc = setContrast(params))) final_rc = rc;
if ((rc = setRecordSize(params))) final_rc = rc;
if ((rc = setSceneDetect(params))) final_rc = rc;
if ((rc = setStrTextures(params))) final_rc = rc;
if ((rc = setPreviewFormat(params))) final_rc = rc;
if ((rc = setSkinToneEnhancement(params))) final_rc = rc;
if ((rc = setAntibanding(params))) final_rc = rc;
const char *str = params.get(CameraParameters::KEY_SCENE_MODE);
int32_t value = attr_lookup(scenemode, sizeof(scenemode) / sizeof(str_map), str);
if((value != NOT_FOUND) && (value == CAMERA_BESTSHOT_OFF)) {
if ((rc = setPreviewFrameRate(params))) final_rc = rc;
if ((rc = setPreviewFrameRateMode(params))) final_rc = rc;
if ((rc = setAutoExposure(params))) final_rc = rc;
if ((rc = setExposureCompensation(params))) final_rc = rc;
if ((rc = setWhiteBalance(params))) final_rc = rc;
if ((rc = setFlash(params))) final_rc = rc;
if ((rc = setFocusMode(params))) final_rc = rc;
if ((rc = setBrightness(params))) final_rc = rc;
if ((rc = setISOValue(params))) final_rc = rc;
}
LOGV("setParameters: X");
return final_rc;
}
CameraParameters QualcommCameraHardware::getParameters() const
{
LOGV("getParameters: EX");
return mParameters;
}
status_t QualcommCameraHardware::setHistogramOn()
{
LOGV("setHistogramOn: EX");
mStatsWaitLock.lock();
mSendData = true;
if(mStatsOn == CAMERA_HISTOGRAM_ENABLE) {
mStatsWaitLock.unlock();
return NO_ERROR;
}
if (mStatHeap != NULL) {
LOGV("setHistogram on: clearing old mStatHeap.");
mStatHeap.clear();
}
mStatSize = sizeof(uint32_t)* HISTOGRAM_STATS_SIZE;
mCurrent = -1;
/*Currently the Ashmem is multiplying the buffer size with total number
of buffers and page aligning. This causes a crash in JNI as each buffer
individually expected to be page aligned */
int page_size_minus_1 = getpagesize() - 1;
int32_t mAlignedStatSize = ((mStatSize + page_size_minus_1) & (~page_size_minus_1));
mStatHeap =
new AshmemPool(mAlignedStatSize,
3,
mStatSize,
"stat");
if (!mStatHeap->initialized()) {
LOGE("Stat Heap X failed ");
mStatHeap.clear();
LOGE("setHistogramOn X: error initializing mStatHeap");
mStatsWaitLock.unlock();
return UNKNOWN_ERROR;
}
mStatsOn = CAMERA_HISTOGRAM_ENABLE;
mStatsWaitLock.unlock();
mCfgControl.mm_camera_set_parm(CAMERA_PARM_HISTOGRAM, &mStatsOn);
return NO_ERROR;
}
status_t QualcommCameraHardware::setHistogramOff()
{
LOGV("setHistogramOff: EX");
mStatsWaitLock.lock();
if(mStatsOn == CAMERA_HISTOGRAM_DISABLE) {
mStatsWaitLock.unlock();
return NO_ERROR;
}
mStatsOn = CAMERA_HISTOGRAM_DISABLE;
mStatsWaitLock.unlock();
mCfgControl.mm_camera_set_parm(CAMERA_PARM_HISTOGRAM, &mStatsOn);
mStatsWaitLock.lock();
mStatHeap.clear();
mStatsWaitLock.unlock();
return NO_ERROR;
}
status_t QualcommCameraHardware::sendCommand(int32_t command, int32_t arg1,
int32_t arg2)
{
LOGV("sendCommand: EX");
Mutex::Autolock l(&mLock);
switch(command) {
case CAMERA_CMD_HISTOGRAM_ON:
LOGV("histogram set to on");
return setHistogramOn();
case CAMERA_CMD_HISTOGRAM_OFF:
LOGV("histogram set to off");
return setHistogramOff();
case CAMERA_CMD_HISTOGRAM_SEND_DATA:
mStatsWaitLock.lock();
if(mStatsOn == CAMERA_HISTOGRAM_ENABLE)
mSendData = true;
mStatsWaitLock.unlock();
return NO_ERROR;
}
return BAD_VALUE;
}
extern "C" sp<CameraHardwareInterface> openCameraHardware()
{
LOGI("openCameraHardware: call createInstance");
return QualcommCameraHardware::createInstance();
}
wp<QualcommCameraHardware> QualcommCameraHardware::singleton;
// If the hardware already exists, return a strong pointer to the current
// object. If not, create a new hardware object, put it in the singleton,
// and return it.
sp<CameraHardwareInterface> QualcommCameraHardware::createInstance()
{
LOGI("createInstance: E");
singleton_lock.lock();
// Wait until the previous release is done.
while (singleton_releasing) {
if((singleton_releasing_start_time != 0) &&
(systemTime() - singleton_releasing_start_time) > SINGLETON_RELEASING_WAIT_TIME){
LOGV("in createinstance system time is %lld %lld %lld ",
systemTime(), singleton_releasing_start_time, SINGLETON_RELEASING_WAIT_TIME);
singleton_lock.unlock();
LOGE("Previous singleton is busy and time out exceeded. Returning null");
return NULL;
}
LOGI("Wait for previous release.");
singleton_wait.waitRelative(singleton_lock, SINGLETON_RELEASING_RECHECK_TIMEOUT);
LOGI("out of Wait for previous release.");
}
if (singleton != 0) {
sp<CameraHardwareInterface> hardware = singleton.promote();
if (hardware != 0) {
LOGD("createInstance: X return existing hardware=%p", &(*hardware));
singleton_lock.unlock();
return hardware;
}
}
{
struct stat st;
int rc = stat("/dev/oncrpc", &st);
if (rc < 0) {
LOGD("createInstance: X failed to create hardware: %s", strerror(errno));
singleton_lock.unlock();
return NULL;
}
}
QualcommCameraHardware *cam = new QualcommCameraHardware();
sp<QualcommCameraHardware> hardware(cam);
singleton = hardware;
LOGI("createInstance: created hardware=%p", &(*hardware));
if (!cam->startCamera()) {
LOGE("%s: startCamera failed!", __FUNCTION__);
singleton_lock.unlock();
return NULL;
}
cam->initDefaultParameters();
singleton_lock.unlock();
LOGI("createInstance: X");
return hardware;
}
// For internal use only, hence the strong pointer to the derived type.
sp<QualcommCameraHardware> QualcommCameraHardware::getInstance()
{
sp<CameraHardwareInterface> hardware = singleton.promote();
if (hardware != 0) {
// LOGV("getInstance: X old instance of hardware");
return sp<QualcommCameraHardware>(static_cast<QualcommCameraHardware*>(hardware.get()));
} else {
LOGV("getInstance: X new instance of hardware");
return sp<QualcommCameraHardware>();
}
}
void QualcommCameraHardware::receiveRecordingFrame(struct msm_frame *frame)
{
LOGV("receiveRecordingFrame E");
// post busy frame
if (frame)
{
cam_frame_post_video (frame);
}
else LOGE("in receiveRecordingFrame frame is NULL");
LOGV("receiveRecordingFrame X");
}
bool QualcommCameraHardware::native_zoom_image(int fd, int srcOffset, int dstOffSet, common_crop_t *crop)
{
int result = 0;
struct mdp_blit_req *e;
struct timeval td1, td2;
/* Initialize yuv structure */
zoomImage.list.count = 1;
e = &zoomImage.list.req[0];
e->src.width = previewWidth;
e->src.height = previewHeight;
e->src.format = MDP_Y_CBCR_H2V2;
e->src.offset = srcOffset;
e->src.memory_id = fd;
e->dst.width = previewWidth;
e->dst.height = previewHeight;
e->dst.format = MDP_Y_CBCR_H2V2;
e->dst.offset = dstOffSet;
e->dst.memory_id = fd;
e->transp_mask = 0xffffffff;
e->flags = 0;
e->alpha = 0xff;
if (crop->in1_w != 0 && crop->in1_h != 0) {
e->src_rect.x = (crop->out1_w - crop->in1_w + 1) / 2 - 1;
e->src_rect.y = (crop->out1_h - crop->in1_h + 1) / 2 - 1;
e->src_rect.w = crop->in1_w;
e->src_rect.h = crop->in1_h;
} else {
e->src_rect.x = 0;
e->src_rect.y = 0;
e->src_rect.w = previewWidth;
e->src_rect.h = previewHeight;
}
//LOGV(" native_zoom : SRC_RECT : x,y = %d,%d \t w,h = %d, %d",
// e->src_rect.x, e->src_rect.y, e->src_rect.w, e->src_rect.h);
e->dst_rect.x = 0;
e->dst_rect.y = 0;
e->dst_rect.w = previewWidth;
e->dst_rect.h = previewHeight;
result = ioctl(fb_fd, MSMFB_BLIT, &zoomImage.list);
if (result < 0) {
LOGE("MSM_FBIOBLT failed! line=%d\n", __LINE__);
return FALSE;
}
return TRUE;
}
void QualcommCameraHardware::debugShowPreviewFPS() const
{
static int mFrameCount;
static int mLastFrameCount = 0;
static nsecs_t mLastFpsTime = 0;
static float mFps = 0;
mFrameCount++;
nsecs_t now = systemTime();
nsecs_t diff = now - mLastFpsTime;
if (diff > ms2ns(250)) {
mFps = ((mFrameCount - mLastFrameCount) * float(s2ns(1))) / diff;
LOGI("Preview Frames Per Second: %.4f", mFps);
mLastFpsTime = now;
mLastFrameCount = mFrameCount;
}
}
void QualcommCameraHardware::debugShowVideoFPS() const
{
static int mFrameCount;
static int mLastFrameCount = 0;
static nsecs_t mLastFpsTime = 0;
static float mFps = 0;
mFrameCount++;
nsecs_t now = systemTime();
nsecs_t diff = now - mLastFpsTime;
if (diff > ms2ns(250)) {
mFps = ((mFrameCount - mLastFrameCount) * float(s2ns(1))) / diff;
LOGI("Video Frames Per Second: %.4f", mFps);
mLastFpsTime = now;
mLastFrameCount = mFrameCount;
}
}
void QualcommCameraHardware::receiveLiveSnapshot(uint32_t jpeg_size)
{
LOGV("receiveLiveSnapshot E");
#ifdef DUMP_LIVESHOT_JPEG_FILE
int file_fd = open("/data/LiveSnapshot.jpg", O_RDWR | O_CREAT, 0777);
LOGV("dumping live shot image in /data/LiveSnapshot.jpg");
if (file_fd < 0) {
LOGE("cannot open file\n");
}
else
{
write(file_fd, (uint8_t *)mJpegHeap->mHeap->base(),jpeg_size);
}
close(file_fd);
#endif
Mutex::Autolock cbLock(&mCallbackLock);
if (mDataCallback && (mMsgEnabled & MEDIA_RECORDER_MSG_COMPRESSED_IMAGE)) {
sp<MemoryBase> buffer = new
MemoryBase(mJpegHeap->mHeap,
0,
jpeg_size);
mDataCallback(MEDIA_RECORDER_MSG_COMPRESSED_IMAGE, buffer, mCallbackCookie);
buffer = NULL;
}
else LOGV("JPEG callback was cancelled--not delivering image.");
//Reset the Gps Information & relieve memory
exif_table_numEntries = 0;
mJpegHeap.clear();
liveshot_state = LIVESHOT_DONE;
LOGV("receiveLiveSnapshot X");
}
void QualcommCameraHardware::receivePreviewFrame(struct msm_frame *frame)
{
// LOGV("receivePreviewFrame E");
if (!mCameraRunning) {
LOGE("ignoring preview callback--camera has been stopped");
return;
}
if (UNLIKELY(mDebugFps)) {
debugShowPreviewFPS();
}
mCallbackLock.lock();
int msgEnabled = mMsgEnabled;
data_callback pcb = mDataCallback;
void *pdata = mCallbackCookie;
data_callback_timestamp rcb = mDataCallbackTimestamp;
void *rdata = mCallbackCookie;
mCallbackLock.unlock();
// Find the offset within the heap of the current buffer.
ssize_t offset_addr =
(ssize_t)frame->buffer - (ssize_t)mPreviewHeap->mHeap->base();
ssize_t offset = offset_addr / mPreviewHeap->mAlignedBufferSize;
common_crop_t *crop = (common_crop_t *) (frame->cropinfo);
#ifdef DUMP_PREVIEW_FRAMES
static int frameCnt = 0;
int written;
if (frameCnt >= 0 && frameCnt <= 10 ) {
char buf[128];
sprintf(buf, "/data/%d_preview.yuv", frameCnt);
int file_fd = open(buf, O_RDWR | O_CREAT, 0777);
LOGV("dumping preview frame %d", frameCnt);
if (file_fd < 0) {
LOGE("cannot open file\n");
}
else
{
LOGV("dumping data");
written = write(file_fd, (uint8_t *)frame->buffer,
mPreviewFrameSize );
if(written < 0)
LOGE("error in data write");
}
close(file_fd);
}
frameCnt++;
#endif
mInPreviewCallback = true;
if(mUseOverlay) {
if(mOverlay != NULL) {
mOverlayLock.lock();
mOverlay->setFd(mPreviewHeap->mHeap->getHeapID());
if (crop->in1_w != 0 && crop->in1_h != 0) {
zoomCropInfo.x = (crop->out1_w - crop->in1_w + 1) / 2 - 1;
zoomCropInfo.y = (crop->out1_h - crop->in1_h + 1) / 2 - 1;
zoomCropInfo.w = crop->in1_w;
zoomCropInfo.h = crop->in1_h;
/* There can be scenarios where the in1_wXin1_h and
* out1_wXout1_h are same. In those cases, reset the
* x and y to zero instead of negative for proper zooming
*/
if(zoomCropInfo.x < 0) zoomCropInfo.x = 0;
if(zoomCropInfo.y < 0) zoomCropInfo.y = 0;
mOverlay->setCrop(zoomCropInfo.x, zoomCropInfo.y,
zoomCropInfo.w, zoomCropInfo.h);
/* Set mResetOverlayCrop to true, so that when there is
* no crop information, setCrop will be called
* with zero crop values.
*/
mResetOverlayCrop = true;
} else {
// Reset zoomCropInfo variables. This will ensure that
// stale values wont be used for postview
zoomCropInfo.w = crop->in1_w;
zoomCropInfo.h = crop->in1_h;
/* This reset is required, if not, overlay driver continues
* to use the old crop information for these preview
* frames which is not the correct behavior. To avoid
* multiple calls, reset once.
*/
if(mResetOverlayCrop == true){
mOverlay->setCrop(0, 0,previewWidth, previewHeight);
mResetOverlayCrop = false;
}
}
mOverlay->queueBuffer((void *)offset_addr);
/* To overcome a timing case where we could be having the overlay refer to deallocated
mDisplayHeap(and showing corruption), the mDisplayHeap is not deallocated untill the
first preview frame is queued to the overlay in 8660 */
if ((mCurrentTarget == TARGET_MSM8660)&&(mFirstFrame == true)) {
LOGD(" receivePreviewFrame : first frame queued, display heap being deallocated");
mThumbnailHeap.clear();
mDisplayHeap.clear();
mFirstFrame = false;
mPostViewHeap.clear();
}
mLastQueuedFrame = (void *)frame->buffer;
mOverlayLock.unlock();
}
} else {
if (crop->in1_w != 0 && crop->in1_h != 0) {
dstOffset = (dstOffset + 1) % NUM_MORE_BUFS;
offset = kPreviewBufferCount + dstOffset;
ssize_t dstOffset_addr = offset * mPreviewHeap->mAlignedBufferSize;
if( !native_zoom_image(mPreviewHeap->mHeap->getHeapID(),
offset_addr, dstOffset_addr, crop)) {
LOGE(" Error while doing MDP zoom ");
offset = offset_addr / mPreviewHeap->mAlignedBufferSize;
}
}
if (mCurrentTarget == TARGET_MSM7627) {
mLastQueuedFrame = (void *)mPreviewHeap->mBuffers[offset]->pointer();
}
}
if (pcb != NULL && (msgEnabled & CAMERA_MSG_PREVIEW_FRAME))
pcb(CAMERA_MSG_PREVIEW_FRAME, mPreviewHeap->mBuffers[offset],
pdata);
// If output is NOT enabled (targets otherthan 7x30 , 8x50 and 8x60 currently..)
if( (mCurrentTarget != TARGET_MSM7630 ) && (mCurrentTarget != TARGET_QSD8250) && (mCurrentTarget != TARGET_MSM8660)) {
if(rcb != NULL && (msgEnabled & CAMERA_MSG_VIDEO_FRAME)) {
rcb(systemTime(), CAMERA_MSG_VIDEO_FRAME, mPreviewHeap->mBuffers[offset], rdata);
Mutex::Autolock rLock(&mRecordFrameLock);
if (mReleasedRecordingFrame != true) {
LOGV("block waiting for frame release");
mRecordWait.wait(mRecordFrameLock);
LOGV("frame released, continuing");
}
mReleasedRecordingFrame = false;
}
}
mInPreviewCallback = false;
// LOGV("receivePreviewFrame X");
}
void QualcommCameraHardware::receiveCameraStats(camstats_type stype, camera_preview_histogram_info* histinfo)
{
// LOGV("receiveCameraStats E");
if (!mCameraRunning) {
LOGE("ignoring stats callback--camera has been stopped");
return;
}
if(mOverlay == NULL) {
return;
}
mCallbackLock.lock();
int msgEnabled = mMsgEnabled;
data_callback scb = mDataCallback;
void *sdata = mCallbackCookie;
mCallbackLock.unlock();
mStatsWaitLock.lock();
if(mStatsOn == CAMERA_HISTOGRAM_DISABLE) {
mStatsWaitLock.unlock();
return;
}
if(!mSendData) {
mStatsWaitLock.unlock();
} else {
mSendData = false;
mCurrent = (mCurrent+1)%3;
// The first element of the array will contain the maximum hist value provided by driver.
*(uint32_t *)(mStatHeap->mHeap->base()+ (mStatHeap->mBufferSize * mCurrent)) = histinfo->max_value;
memcpy((uint32_t *)((unsigned int)mStatHeap->mHeap->base()+ (mStatHeap->mBufferSize * mCurrent)+ sizeof(int32_t)), (uint32_t *)histinfo->buffer,(sizeof(int32_t) * 256));
mStatsWaitLock.unlock();
if (scb != NULL && (msgEnabled & CAMERA_MSG_STATS_DATA))
scb(CAMERA_MSG_STATS_DATA, mStatHeap->mBuffers[mCurrent],
sdata);
}
// LOGV("receiveCameraStats X");
}
bool QualcommCameraHardware::initRecord()
{
const char *pmem_region;
int CbCrOffset;
int recordBufferSize;
LOGV("initREcord E");
if(mCurrentTarget == TARGET_MSM8660)
pmem_region = "/dev/pmem_smipool";
else
pmem_region = "/dev/pmem_adsp";
// for 8x60 the Encoder expects the CbCr offset should be aligned to 2K.
if(mCurrentTarget == TARGET_MSM8660) {
CbCrOffset = PAD_TO_2K(mDimension.video_width * mDimension.video_height);
recordBufferSize = CbCrOffset + PAD_TO_2K((mDimension.video_width * mDimension.video_height)/2);
} else {
CbCrOffset = PAD_TO_WORD(mDimension.video_width * mDimension.video_height);
recordBufferSize = (mDimension.video_width * mDimension.video_height *3)/2;
}
LOGV("initRecord: mDimension.video_width = %d mDimension.video_height = %d",
mDimension.video_width, mDimension.video_height);
/* Buffersize and frameSize will be different when DIS is ON.
* We need to pass the actual framesize with video heap, as the same
* is used at camera MIO when negotiating with encoder.
*/
mRecordFrameSize = recordBufferSize;
if(mVpeEnabled && mDisEnabled){
mRecordFrameSize = videoWidth * videoHeight * 3 / 2;
if(mCurrentTarget == TARGET_MSM8660){
mRecordFrameSize = PAD_TO_2K(videoWidth * videoHeight)
+ PAD_TO_2K((videoWidth * videoHeight)/2);
}
}
LOGV("mRecordFrameSize = %d", mRecordFrameSize);
mRecordHeap = new PmemPool(pmem_region,
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_VIDEO,
recordBufferSize,
kRecordBufferCount,
mRecordFrameSize,
CbCrOffset,
0,
"record");
if (!mRecordHeap->initialized()) {
mRecordHeap.clear();
LOGE("initRecord X: could not initialize record heap.");
return false;
}
for (int cnt = 0; cnt < kRecordBufferCount; cnt++) {
recordframes[cnt].fd = mRecordHeap->mHeap->getHeapID();
recordframes[cnt].buffer =
(uint32_t)mRecordHeap->mHeap->base() + mRecordHeap->mAlignedBufferSize * cnt;
recordframes[cnt].y_off = 0;
recordframes[cnt].cbcr_off = CbCrOffset;
recordframes[cnt].path = OUTPUT_TYPE_V;
record_buffers_tracking_flag[cnt] = false;
LOGV ("initRecord : record heap , video buffers buffer=%lu fd=%d y_off=%d cbcr_off=%d \n",
(unsigned long)recordframes[cnt].buffer, recordframes[cnt].fd, recordframes[cnt].y_off,
recordframes[cnt].cbcr_off);
}
// initial setup : buffers 1,2,3 with kernel , 4 with camframe , 5,6,7,8 in free Q
// flush the busy Q
cam_frame_flush_video();
mVideoThreadWaitLock.lock();
while (mVideoThreadRunning) {
LOGV("initRecord: waiting for old video thread to complete.");
mVideoThreadWait.wait(mVideoThreadWaitLock);
LOGV("initRecord : old video thread completed.");
}
mVideoThreadWaitLock.unlock();
// flush free queue and add 5,6,7,8 buffers.
LINK_cam_frame_flush_free_video();
if(mVpeEnabled) {
//If VPE is enabled, the VPE buffer shouldn't be added to Free Q initally.
for(int i=ACTIVE_VIDEO_BUFFERS+1;i <kRecordBufferCount-1; i++)
LINK_camframe_free_video(&recordframes[i]);
} else {
for(int i=ACTIVE_VIDEO_BUFFERS+1;i <kRecordBufferCount; i++)
LINK_camframe_free_video(&recordframes[i]);
}
LOGV("initREcord X");
return true;
}
status_t QualcommCameraHardware::setDIS() {
LOGV("setDIS E");
video_dis_param_ctrl_t disCtrl;
bool ret = true;
LOGV("mDisEnabled = %d", mDisEnabled);
int video_frame_cbcroffset;
video_frame_cbcroffset = PAD_TO_WORD(videoWidth * videoHeight);
if(mCurrentTarget == TARGET_MSM8660)
video_frame_cbcroffset = PAD_TO_2K(videoWidth * videoHeight);
disCtrl.dis_enable = mDisEnabled;
disCtrl.video_rec_width = videoWidth;
disCtrl.video_rec_height = videoHeight;
disCtrl.output_cbcr_offset = video_frame_cbcroffset;
ret = native_set_parms( CAMERA_PARM_VIDEO_DIS,
sizeof(disCtrl), &disCtrl);
LOGV("setDIS X (%d)", ret);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
status_t QualcommCameraHardware::setVpeParameters()
{
LOGV("setVpeParameters E");
video_rotation_param_ctrl_t rotCtrl;
bool ret = true;
LOGV("videoWidth = %d, videoHeight = %d", videoWidth, videoHeight);
rotCtrl.rotation = (mRotation == 0) ? ROT_NONE :
((mRotation == 90) ? ROT_CLOCKWISE_90 :
((mRotation == 180) ? ROT_CLOCKWISE_180 : ROT_CLOCKWISE_270));
if( ((videoWidth == 1280 && videoHeight == 720) || (videoWidth == 800 && videoHeight == 480))
&& (mRotation == 90 || mRotation == 270) ){
/* Due to a limitation at video core to support heights greater than 720, adding this check.
* This is a temporary hack, need to be removed once video core support is available
*/
LOGI("video resolution (%dx%d) with rotation (%d) is not supported, setting rotation to NONE",
videoWidth, videoHeight, mRotation);
rotCtrl.rotation = ROT_NONE;
}
LOGV("rotCtrl.rotation = %d", rotCtrl.rotation);
ret = native_set_parms(CAMERA_PARM_VIDEO_ROT,
sizeof(rotCtrl), &rotCtrl);
LOGV("setVpeParameters X (%d)", ret);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
status_t QualcommCameraHardware::startRecording()
{
LOGV("startRecording E");
int ret;
Mutex::Autolock l(&mLock);
mReleasedRecordingFrame = false;
if( (ret=startPreviewInternal())== NO_ERROR){
if(mVpeEnabled){
LOGI("startRecording: VPE enabled, setting vpe parameters");
bool status = setVpeParameters();
if(status) {
LOGE("Failed to set VPE parameters");
return status;
}
}
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
LOGV(" in startREcording : calling start_recording");
native_start_ops(CAMERA_OPS_VIDEO_RECORDING, NULL);
recordingState = 1;
// Remove the left out frames in busy Q and them in free Q.
// this should be done before starting video_thread so that,
// frames in previous recording are flushed out.
LOGV("frames in busy Q = %d", g_busy_frame_queue.num_of_frames);
while((g_busy_frame_queue.num_of_frames) >0){
msm_frame* vframe = cam_frame_get_video ();
LINK_camframe_free_video(vframe);
}
LOGV("frames in busy Q = %d after deQueing", g_busy_frame_queue.num_of_frames);
//Clear the dangling buffers and put them in free queue
for(int cnt = 0; cnt < kRecordBufferCount; cnt++) {
if(record_buffers_tracking_flag[cnt] == true) {
LOGI("Dangling buffer: offset = %d, buffer = %d", cnt, (unsigned int)recordframes[cnt].buffer);
LINK_camframe_free_video(&recordframes[cnt]);
record_buffers_tracking_flag[cnt] = false;
}
}
// Start video thread and wait for busy frames to be encoded, this thread
// should be closed in stopRecording
mVideoThreadWaitLock.lock();
mVideoThreadExit = 0;
pthread_attr_t attr;
pthread_attr_init(&attr);
pthread_attr_setdetachstate(&attr, PTHREAD_CREATE_DETACHED);
mVideoThreadRunning = pthread_create(&mVideoThread,
&attr,
video_thread,
NULL);
mVideoThreadWaitLock.unlock();
// Remove the left out frames in busy Q and them in free Q.
}
}
return ret;
}
void QualcommCameraHardware::stopRecording()
{
LOGV("stopRecording: E");
Mutex::Autolock l(&mLock);
{
mRecordFrameLock.lock();
mReleasedRecordingFrame = true;
mRecordWait.signal();
mRecordFrameLock.unlock();
if(mDataCallback && !(mCurrentTarget == TARGET_QSD8250) &&
(mMsgEnabled & CAMERA_MSG_PREVIEW_FRAME)) {
LOGV("stopRecording: X, preview still in progress");
return;
}
}
// If output2 enabled, exit video thread, invoke stop recording ioctl
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
mVideoThreadWaitLock.lock();
mVideoThreadExit = 1;
mVideoThreadWaitLock.unlock();
native_stop_ops(CAMERA_OPS_VIDEO_RECORDING, NULL);
pthread_mutex_lock(&(g_busy_frame_queue.mut));
pthread_cond_signal(&(g_busy_frame_queue.wait));
pthread_mutex_unlock(&(g_busy_frame_queue.mut));
}
else // for other targets where output2 is not enabled
stopPreviewInternal();
if (mJpegHeap != NULL) {
LOGV("stopRecording: clearing old mJpegHeap.");
mJpegHeap.clear();
}
recordingState = 0; // recording not started
LOGV("stopRecording: X");
}
void QualcommCameraHardware::releaseRecordingFrame(
const sp<IMemory>& mem __attribute__((unused)))
{
LOGV("releaseRecordingFrame E");
Mutex::Autolock rLock(&mRecordFrameLock);
mReleasedRecordingFrame = true;
mRecordWait.signal();
// Ff 7x30 : add the frame to the free camframe queue
if( (mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660)) {
ssize_t offset;
size_t size;
sp<IMemoryHeap> heap = mem->getMemory(&offset, &size);
msm_frame* releaseframe = NULL;
LOGV(" in release recording frame : heap base %d offset %d buffer %d ", heap->base(), offset, heap->base() + offset );
int cnt;
for (cnt = 0; cnt < kRecordBufferCount; cnt++) {
if((unsigned int)recordframes[cnt].buffer == ((unsigned int)heap->base()+ offset)){
LOGV("in release recording frame found match , releasing buffer %d", (unsigned int)recordframes[cnt].buffer);
releaseframe = &recordframes[cnt];
break;
}
}
if(cnt < kRecordBufferCount) {
// do this only if frame thread is running
mFrameThreadWaitLock.lock();
if(mFrameThreadRunning ) {
//Reset the track flag for this frame buffer
record_buffers_tracking_flag[cnt] = false;
LINK_camframe_free_video(releaseframe);
}
mFrameThreadWaitLock.unlock();
} else {
LOGE("in release recordingframe XXXXX error , buffer not found");
for (int i=0; i< kRecordBufferCount; i++) {
LOGE(" recordframes[%d].buffer = %d", i, (unsigned int)recordframes[i].buffer);
}
}
}
LOGV("releaseRecordingFrame X");
}
bool QualcommCameraHardware::recordingEnabled()
{
return mCameraRunning && mDataCallbackTimestamp && (mMsgEnabled & CAMERA_MSG_VIDEO_FRAME);
}
void QualcommCameraHardware::notifyShutter(common_crop_t *crop, bool mPlayShutterSoundOnly)
{
mShutterLock.lock();
image_rect_type size;
if(mPlayShutterSoundOnly) {
/* At this point, invoke Notify Callback to play shutter sound only.
* We want to call notify callback again when we have the
* yuv picture ready. This is to reduce blanking at the time
* of displaying postview frame. Using ext2 to indicate whether
* to play shutter sound only or register the postview buffers.
*/
mNotifyCallback(CAMERA_MSG_SHUTTER, 0, mPlayShutterSoundOnly,
mCallbackCookie);
mShutterLock.unlock();
return;
}
if (mShutterPending && mNotifyCallback && (mMsgEnabled & CAMERA_MSG_SHUTTER)) {
if (mSnapshotFormat == PICTURE_FORMAT_RAW) {
size.width = previewWidth;
size.height = previewHeight;
mNotifyCallback(CAMERA_MSG_SHUTTER, (int32_t)&size, 0,
mCallbackCookie);
mShutterPending = false;
mShutterLock.unlock();
return;
}
LOGV("out2_w=%d, out2_h=%d, in2_w=%d, in2_h=%d",
crop->out2_w, crop->out2_h, crop->in2_w, crop->in2_h);
LOGV("out1_w=%d, out1_h=%d, in1_w=%d, in1_h=%d",
crop->out1_w, crop->out1_h, crop->in1_w, crop->in1_h);
// To workaround a bug in MDP which happens if either
// dimension > 2048, we display the thumbnail instead.
if (mCurrentTarget == TARGET_MSM7627)
mDisplayHeap = mThumbnailHeap;
else
mDisplayHeap = mRawHeap;
// In case of 7x27, we use output2 for postview , which is of
// preview size. Output2 was used for thumbnail previously.
// Now thumbnail is generated from main image for 7x27.
if (crop->in1_w == 0 || crop->in1_h == 0) {
// Full size
if (mCurrentTarget == TARGET_MSM7627) {
jpegPadding = 0;
size.width = mDimension.ui_thumbnail_width;
size.height = mDimension.ui_thumbnail_height;
} else {
size.width = mDimension.picture_width;
size.height = mDimension.picture_height;
if (size.width > 2048 || size.height > 2048) {
size.width = mDimension.ui_thumbnail_width;
size.height = mDimension.ui_thumbnail_height;
mDisplayHeap = mThumbnailHeap;
}
}
} else {
// Cropped
if (mCurrentTarget == TARGET_MSM7627) {
jpegPadding = 8;
size.width = (crop->in1_w + jpegPadding) & ~1;
size.height = (crop->in1_h + jpegPadding) & ~1;
} else {
size.width = (crop->in2_w + jpegPadding) & ~1;
size.height = (crop->in2_h + jpegPadding) & ~1;
if (size.width > 2048 || size.height > 2048) {
size.width = (crop->in1_w + jpegPadding) & ~1;
size.height = (crop->in1_h + jpegPadding) & ~1;
mDisplayHeap = mThumbnailHeap;
}
}
}
//We need to create overlay with dimensions that the VFE output
//is configured for post view.
if((mCurrentTarget == TARGET_MSM7630) ||
(mCurrentTarget == TARGET_MSM8660)) {
size.width = mDimension.ui_thumbnail_width;
size.height = mDimension.ui_thumbnail_height;
//Make ThumbnailHeap as Displayheap for post view.
mDisplayHeap = mThumbnailHeap;
}
//For streaming textures, we need to pass the main image in all the cases.
if(strTexturesOn == true) {
int rawWidth, rawHeight;
mParameters.getPictureSize(&rawWidth, &rawHeight);
size.width = rawWidth;
size.height = rawHeight;
mDisplayHeap = mRawHeap;
}
/* Now, invoke Notify Callback to unregister preview buffer
* and register postview buffer with surface flinger. Set ext2
* as 0 to indicate not to play shutter sound.
*/
mNotifyCallback(CAMERA_MSG_SHUTTER, (int32_t)&size, 0,
mCallbackCookie);
mShutterPending = false;
}
mShutterLock.unlock();
}
static void receive_shutter_callback(common_crop_t *crop)
{
LOGV("receive_shutter_callback: E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
/* Just play shutter sound at this time */
obj->notifyShutter(crop, TRUE);
}
LOGV("receive_shutter_callback: X");
}
// Crop the picture in place.
static void crop_yuv420(uint32_t width, uint32_t height,
uint32_t cropped_width, uint32_t cropped_height,
uint8_t *image, const char *name)
{
int32_t i;
uint32_t x, y;
uint8_t* chroma_src, *chroma_dst;
int yOffsetSrc, yOffsetDst, CbCrOffsetSrc, CbCrOffsetDst;
int mSrcSize, mDstSize;
//check if all fields needed eg. size and also how to set y offset. If condition for 7x27
//and need to check if needed for 7x30.
LINK_jpeg_encoder_get_buffer_offset(width, height, (uint32_t *)&yOffsetSrc,
(uint32_t *)&CbCrOffsetSrc, (uint32_t *)&mSrcSize);
LINK_jpeg_encoder_get_buffer_offset(cropped_width, cropped_height, (uint32_t *)&yOffsetDst,
(uint32_t *)&CbCrOffsetDst, (uint32_t *)&mDstSize);
// Calculate the start position of the cropped area.
x = (width - cropped_width) / 2;
y = (height - cropped_height) / 2;
x &= ~1;
y &= ~1;
if((mCurrentTarget == TARGET_MSM7627)
|| (mCurrentTarget == TARGET_MSM7630)
|| (mCurrentTarget == TARGET_MSM8660)) {
if (!strcmp("snapshot camera", name)) {
chroma_src = image + CbCrOffsetSrc;
chroma_dst = image + CbCrOffsetDst;
} else {
chroma_src = image + width * height;
chroma_dst = image + cropped_width * cropped_height;
yOffsetSrc = 0;
yOffsetDst = 0;
CbCrOffsetSrc = width * height;
CbCrOffsetDst = cropped_width * cropped_height;
}
} else {
chroma_src = image + CbCrOffsetSrc;
chroma_dst = image + CbCrOffsetDst;
}
int32_t bufDst = yOffsetDst;
int32_t bufSrc = yOffsetSrc + (width * y) + x;
if( bufDst > bufSrc ){
LOGV("crop yuv Y destination position follows source position");
/*
* If buffer destination follows buffer source, memcpy
* of lines will lead to overwriting subsequent lines. In order
* to prevent this, reverse copying of lines is performed
* for the set of lines where destination follows source and
* forward copying of lines is performed for lines where source
* follows destination. To calculate the position to switch,
* the initial difference between source and destination is taken
* and divided by difference between width and cropped width. For
* every line copied the difference between source destination
* drops by width - cropped width
*/
//calculating inversion
int position = ( bufDst - bufSrc ) / (width - cropped_width);
// Copy luma component.
for(i=position+1; i < cropped_height; i++){
memmove(image + yOffsetDst + i * cropped_width,
image + yOffsetSrc + width * (y + i) + x,
cropped_width);
}
for(i=position; i>=0; i--){
memmove(image + yOffsetDst + i * cropped_width,
image + yOffsetSrc + width * (y + i) + x,
cropped_width);
}
} else {
// Copy luma component.
for(i = 0; i < cropped_height; i++)
memcpy(image + yOffsetDst + i * cropped_width,
image + yOffsetSrc + width * (y + i) + x,
cropped_width);
}
// Copy chroma components.
cropped_height /= 2;
y /= 2;
bufDst = CbCrOffsetDst;
bufSrc = CbCrOffsetSrc + (width * y) + x;
if( bufDst > bufSrc ) {
LOGV("crop yuv Chroma destination position follows source position");
/*
* Similar to y
*/
int position = ( bufDst - bufSrc ) / (width - cropped_width);
for(i=position+1; i < cropped_height; i++){
memmove(chroma_dst + i * cropped_width,
chroma_src + width * (y + i) + x,
cropped_width);
}
for(i=position; i >=0; i--){
memmove(chroma_dst + i * cropped_width,
chroma_src + width * (y + i) + x,
cropped_width);
}
} else {
for(i = 0; i < cropped_height; i++)
memcpy(chroma_dst + i * cropped_width,
chroma_src + width * (y + i) + x,
cropped_width);
}
}
bool QualcommCameraHardware::receiveRawSnapshot(){
LOGV("receiveRawSnapshot E");
Mutex::Autolock cbLock(&mCallbackLock);
/* Issue notifyShutter with mPlayShutterSoundOnly as TRUE */
notifyShutter(&mCrop, TRUE);
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE)) {
if(native_start_ops(CAMERA_OPS_GET_PICTURE, &mCrop) == false) {
LOGE("receiveRawSnapshot X: CAMERA_OPS_GET_PICTURE ioctl failed!");
return false;
}
/* Its necessary to issue another notifyShutter here with
* mPlayShutterSoundOnly as FALSE, since that is when the
* preview buffers are unregistered with the surface flinger.
* That is necessary otherwise the preview memory wont be
* deallocated.
*/
notifyShutter(&mCrop, FALSE);
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE))
mDataCallback(CAMERA_MSG_COMPRESSED_IMAGE, mRawSnapShotPmemHeap->mBuffers[0],
mCallbackCookie);
}
//cleanup
deinitRawSnapshot();
LOGV("receiveRawSnapshot X");
return true;
}
bool QualcommCameraHardware::receiveRawPicture()
{
LOGV("receiveRawPicture: E");
Mutex::Autolock cbLock(&mCallbackLock);
if (mDataCallback && ((mMsgEnabled & CAMERA_MSG_RAW_IMAGE) || mSnapshotDone)) {
if(native_start_ops(CAMERA_OPS_GET_PICTURE, &mCrop) == false) {
LOGE("getPicture: CAMERA_OPS_GET_PICTURE ioctl failed!");
return false;
}
mSnapshotDone = FALSE;
mCrop.in1_w &= ~1;
mCrop.in1_h &= ~1;
mCrop.in2_w &= ~1;
mCrop.in2_h &= ~1;
LOGV("crop: in1_w %d", mCrop.in1_w);
LOGV("crop: in1_h %d", mCrop.in1_h);
LOGV("crop: out1_w %d", mCrop.out1_w);
LOGV("crop: out1_h %d", mCrop.out1_h);
LOGV("crop: in2_w %d", mCrop.in2_w);
LOGV("crop: in2_h %d", mCrop.in2_h);
LOGV("crop: out2_w %d", mCrop.out2_w);
LOGV("crop: out2_h %d", mCrop.out2_h);
LOGV("crop: update %d", mCrop.update_flag);
// Crop the image if zoomed.
if (mCrop.in2_w != 0 && mCrop.in2_h != 0 &&
((mCrop.in2_w + jpegPadding) < mCrop.out2_w) &&
((mCrop.in2_h + jpegPadding) < mCrop.out2_h) &&
((mCrop.in1_w + jpegPadding) < mCrop.out1_w) &&
((mCrop.in1_h + jpegPadding) < mCrop.out1_h) ) {
// By the time native_get_picture returns, picture is taken. Call
// shutter callback if cam config thread has not done that.
notifyShutter(&mCrop, FALSE);
{
Mutex::Autolock l(&mRawPictureHeapLock);
if(mRawHeap != NULL){
crop_yuv420(mCrop.out2_w, mCrop.out2_h, (mCrop.in2_w + jpegPadding), (mCrop.in2_h + jpegPadding),
(uint8_t *)mRawHeap->mHeap->base(), mRawHeap->mName);
}
if( (mThumbnailHeap != NULL) &&
(mCurrentTarget != TARGET_MSM7630) &&
(mCurrentTarget != TARGET_MSM8660) ) {
//Don't crop the mThumbnailHeap for 7630. As this heap
//is used for postview rather than for thumbnail. (thumbnail is generated from main image).
//overlay's setCrop will take of cropping while displaying postview.
crop_yuv420(mCrop.out1_w, mCrop.out1_h, (mCrop.in1_w + jpegPadding), (mCrop.in1_h + jpegPadding),
(uint8_t *)mThumbnailHeap->mHeap->base(), mThumbnailHeap->mName);
}
}
// We do not need jpeg encoder to upscale the image. Set the new
// dimension for encoder.
mDimension.orig_picture_dx = mCrop.in2_w + jpegPadding;
mDimension.orig_picture_dy = mCrop.in2_h + jpegPadding;
/* Don't update the thumbnail_width/height, if jpeg downscaling
* is used to generate thumbnail. These parameters should contain
* the original thumbnail dimensions.
*/
if(strTexturesOn != true) {
mDimension.thumbnail_width = mCrop.in1_w + jpegPadding;
mDimension.thumbnail_height = mCrop.in1_h + jpegPadding;
}
}else {
memset(&mCrop, 0 ,sizeof(mCrop));
// By the time native_get_picture returns, picture is taken. Call
// shutter callback if cam config thread has not done that.
notifyShutter(&mCrop, FALSE);
}
if( mUseOverlay && (mOverlay != NULL) ) {
mOverlay->setFd(mDisplayHeap->mHeap->getHeapID());
int cropX = 0;
int cropY = 0;
int cropW = 0;
int cropH = 0;
//Caculate the crop dimensions from mCrop.
//mCrop will have the crop dimensions for VFE's
//postview output.
if (mCrop.in1_w != 0 && mCrop.in1_h != 0) {
cropX = (mCrop.out1_w - mCrop.in1_w + 1) / 2 - 1;
cropY = (mCrop.out1_h - mCrop.in1_h + 1) / 2 - 1;
if(cropX < 0) cropX = 0;
if(cropY < 0) cropY = 0;
cropW = mCrop.in1_w;
cropH = mCrop.in1_h;
mOverlay->setCrop(cropX, cropY, cropW, cropH);
mResetOverlayCrop = true;
}
LOGV(" Queueing Postview for display ");
mOverlay->queueBuffer((void *)0);
}
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_RAW_IMAGE))
mDataCallback(CAMERA_MSG_RAW_IMAGE, mDisplayHeap->mBuffers[0],
mCallbackCookie);
if(strTexturesOn == true) {
LOGI("Raw Data given to app for processing...will wait for jpeg encode call");
mEncodePendingWaitLock.lock();
mEncodePending = true;
mEncodePendingWaitLock.unlock();
}
}
else LOGV("Raw-picture callback was canceled--skipping.");
if(strTexturesOn != true) {
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE)) {
mJpegSize = 0;
mJpegThreadWaitLock.lock();
if (LINK_jpeg_encoder_init()) {
mJpegThreadRunning = true;
mJpegThreadWaitLock.unlock();
if(native_jpeg_encode()) {
LOGV("receiveRawPicture: X (success)");
return true;
}
LOGE("jpeg encoding failed");
}
else {
LOGE("receiveRawPicture X: jpeg_encoder_init failed.");
mJpegThreadWaitLock.unlock();
}
}
else LOGV("JPEG callback is NULL, not encoding image.");
deinitRaw();
return false;
}
LOGV("receiveRawPicture: X");
return true;
}
void QualcommCameraHardware::receiveJpegPictureFragment(
uint8_t *buff_ptr, uint32_t buff_size)
{
LOGV("receiveJpegPictureFragment size %d", buff_size);
uint32_t remaining = mJpegHeap->mHeap->virtualSize();
remaining -= mJpegSize;
uint8_t *base = (uint8_t *)mJpegHeap->mHeap->base();
if (buff_size > remaining) {
LOGE("receiveJpegPictureFragment: size %d exceeds what "
"remains in JPEG heap (%d), truncating",
buff_size,
remaining);
buff_size = remaining;
}
memcpy(base + mJpegSize, buff_ptr, buff_size);
mJpegSize += buff_size;
}
void QualcommCameraHardware::receiveJpegPicture(void)
{
LOGV("receiveJpegPicture: E image (%d uint8_ts out of %d)",
mJpegSize, mJpegHeap->mBufferSize);
Mutex::Autolock cbLock(&mCallbackLock);
int index = 0, rc;
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE)) {
// The reason we do not allocate into mJpegHeap->mBuffers[offset] is
// that the JPEG image's size will probably change from one snapshot
// to the next, so we cannot reuse the MemoryBase object.
sp<MemoryBase> buffer = new
MemoryBase(mJpegHeap->mHeap,
index * mJpegHeap->mBufferSize +
0,
mJpegSize);
mDataCallback(CAMERA_MSG_COMPRESSED_IMAGE, buffer, mCallbackCookie);
buffer = NULL;
}
else LOGV("JPEG callback was cancelled--not delivering image.");
mJpegThreadWaitLock.lock();
mJpegThreadRunning = false;
mJpegThreadWait.signal();
mJpegThreadWaitLock.unlock();
LOGV("receiveJpegPicture: X callback done.");
}
bool QualcommCameraHardware::previewEnabled()
{
/* If overlay is used the message CAMERA_MSG_PREVIEW_FRAME would
* be disabled at CameraService layer. Hence previewEnabled would
* return FALSE even though preview is running. Hence check for
* mOverlay not being NULL to ensure that previewEnabled returns
* accurate information.
*/
return mCameraRunning && mDataCallback &&
((mMsgEnabled & CAMERA_MSG_PREVIEW_FRAME) || (mOverlay != NULL));
}
status_t QualcommCameraHardware::setRecordSize(const CameraParameters& params)
{
int width, height;
const char *str = params.get("record-size");
if(str) {
LOGV("Requested Record size %s", str);
mParameters.set("record-size" , str);
} else {
//set the record-size value to null.
//This is required as the application can request
//to reset this value, so that it won't be carried
//when switched to camera.
mParameters.set("record-size", "");
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setPreviewSize(const CameraParameters& params)
{
int width, height;
params.getPreviewSize(&width, &height);
LOGV("requested preview size %d x %d", width, height);
// Validate the preview size
for (size_t i = 0; i < previewSizeCount; ++i) {
if (width == supportedPreviewSizes[i].width
&& height == supportedPreviewSizes[i].height) {
mParameters.setPreviewSize(width, height);
mDimension.display_width = width;
mDimension.display_height= height;
return NO_ERROR;
}
}
LOGE("Invalid preview size requested: %dx%d", width, height);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setPreviewFrameRate(const CameraParameters& params)
{
if( !mCfgControl.mm_camera_is_supported(CAMERA_PARM_FPS)){
LOGI("Set fps is not supported for this sensor");
return NO_ERROR;
}
uint16_t previousFps = (uint16_t)mParameters.getPreviewFrameRate();
uint16_t fps = (uint16_t)params.getPreviewFrameRate();
LOGV("requested preview frame rate is %u", fps);
if(mInitialized && (fps == previousFps)){
LOGV("fps same as previous fps");
return NO_ERROR;
}
if(MINIMUM_FPS <= fps && fps <=MAXIMUM_FPS){
mParameters.setPreviewFrameRate(fps);
bool ret = native_set_parms(CAMERA_PARM_FPS,
sizeof(fps), (void *)&fps);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
return BAD_VALUE;
}
status_t QualcommCameraHardware::setPreviewFrameRateMode(const CameraParameters& params) {
if( !mCfgControl.mm_camera_is_supported(CAMERA_PARM_FPS_MODE) && !mCfgControl.mm_camera_is_supported(CAMERA_PARM_FPS)){
LOGI("set fps mode is not supported for this sensor");
return NO_ERROR;
}
const char *previousMode = mParameters.getPreviewFrameRateMode();
const char *str = params.getPreviewFrameRateMode();
if( mInitialized && !strcmp(previousMode, str)) {
LOGV("frame rate mode same as previous mode %s", previousMode);
return NO_ERROR;
}
int32_t frameRateMode = attr_lookup(frame_rate_modes, sizeof(frame_rate_modes) / sizeof(str_map),str);
if(frameRateMode != NOT_FOUND) {
LOGV("setPreviewFrameRateMode: %s ", str);
mParameters.setPreviewFrameRateMode(str);
bool ret = native_set_parms(CAMERA_PARM_FPS_MODE, sizeof(frameRateMode), (void *)&frameRateMode);
if(!ret) return ret;
//set the fps value when chaging modes
int16_t fps = (uint16_t)params.getPreviewFrameRate();
if(MINIMUM_FPS <= fps && fps <=MAXIMUM_FPS){
mParameters.setPreviewFrameRate(fps);
ret = native_set_parms(CAMERA_PARM_FPS,
sizeof(fps), (void *)&fps);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
LOGE("Invalid preview frame rate value: %d", fps);
return BAD_VALUE;
}
LOGE("Invalid preview frame rate mode value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setJpegThumbnailSize(const CameraParameters& params){
int width = params.getInt(CameraParameters::KEY_JPEG_THUMBNAIL_WIDTH);
int height = params.getInt(CameraParameters::KEY_JPEG_THUMBNAIL_HEIGHT);
LOGV("requested jpeg thumbnail size %d x %d", width, height);
// Validate the picture size
for (int i = 0; i < JPEG_THUMBNAIL_SIZE_COUNT; ++i) {
if (width == jpeg_thumbnail_sizes[i].width
&& height == jpeg_thumbnail_sizes[i].height) {
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_WIDTH, width);
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_HEIGHT, height);
return NO_ERROR;
}
}
return BAD_VALUE;
}
status_t QualcommCameraHardware::setPictureSize(const CameraParameters& params)
{
int width, height;
params.getPictureSize(&width, &height);
LOGV("requested picture size %d x %d", width, height);
// Validate the picture size
for (int i = 0; i < supportedPictureSizesCount; ++i) {
if (width == picture_sizes_ptr[i].width
&& height == picture_sizes_ptr[i].height) {
mParameters.setPictureSize(width, height);
mDimension.picture_width = width;
mDimension.picture_height = height;
return NO_ERROR;
}
}
/* Dimension not among the ones in the list. Check if
* its a valid dimension, if it is, then configure the
* camera accordingly. else reject it.
*/
if( isValidDimension(width, height) ) {
mParameters.setPictureSize(width, height);
mDimension.picture_width = width;
mDimension.picture_height = height;
return NO_ERROR;
} else
LOGE("Invalid picture size requested: %dx%d", width, height);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setJpegQuality(const CameraParameters& params) {
status_t rc = NO_ERROR;
int quality = params.getInt(CameraParameters::KEY_JPEG_QUALITY);
if (quality > 0 && quality <= 100) {
mParameters.set(CameraParameters::KEY_JPEG_QUALITY, quality);
} else {
LOGE("Invalid jpeg quality=%d", quality);
rc = BAD_VALUE;
}
quality = params.getInt(CameraParameters::KEY_JPEG_THUMBNAIL_QUALITY);
if (quality > 0 && quality <= 100) {
mParameters.set(CameraParameters::KEY_JPEG_THUMBNAIL_QUALITY, quality);
} else {
LOGE("Invalid jpeg thumbnail quality=%d", quality);
rc = BAD_VALUE;
}
return rc;
}
status_t QualcommCameraHardware::setEffect(const CameraParameters& params)
{
const char *str = params.get(CameraParameters::KEY_EFFECT);
int result;
if (str != NULL) {
int32_t value = attr_lookup(effects, sizeof(effects) / sizeof(str_map), str);
if (value != NOT_FOUND) {
if( !mCfgControl.mm_camera_is_parm_supported(CAMERA_PARM_EFFECT, (void *) &value)){
LOGE("Camera Effect - %s mode is not supported for this sensor",str);
return NO_ERROR;
}else {
mParameters.set(CameraParameters::KEY_EFFECT, str);
bool ret = native_set_parms(CAMERA_PARM_EFFECT, sizeof(value),
(void *)&value,(int *)&result);
if(result == MM_CAMERA_ERR_INVALID_OPERATION) {
LOGI("Camera Effect: %s is not set as the selected value is not supported ", str);
}
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
}
LOGE("Invalid effect value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setExposureCompensation(
const CameraParameters & params){
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_EXPOSURE_COMPENSATION)) {
LOGI("Exposure Compensation is not supported for this sensor");
return NO_ERROR;
}
int numerator = params.getInt(CameraParameters::KEY_EXPOSURE_COMPENSATION);
if(EXPOSURE_COMPENSATION_MINIMUM_NUMERATOR <= numerator &&
numerator <= EXPOSURE_COMPENSATION_MAXIMUM_NUMERATOR){
int16_t numerator16 = (int16_t)(numerator & 0x0000ffff);
uint16_t denominator16 = EXPOSURE_COMPENSATION_DENOMINATOR;
uint32_t value = 0;
value = numerator16 << 16 | denominator16;
mParameters.set(CameraParameters::KEY_EXPOSURE_COMPENSATION,
numerator);
bool ret = native_set_parms(CAMERA_PARM_EXPOSURE_COMPENSATION,
sizeof(value), (void *)&value);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
LOGE("Invalid Exposure Compensation");
return BAD_VALUE;
}
status_t QualcommCameraHardware::setAutoExposure(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_EXPOSURE)) {
LOGI("Auto Exposure not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_AUTO_EXPOSURE);
if (str != NULL) {
int32_t value = attr_lookup(autoexposure, sizeof(autoexposure) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_AUTO_EXPOSURE, str);
bool ret = native_set_parms(CAMERA_PARM_EXPOSURE, sizeof(value),
(void *)&value);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid auto exposure value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setSharpness(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_SHARPNESS)) {
LOGI("Sharpness not supported for this sensor");
return NO_ERROR;
}
int sharpness = params.getInt(CameraParameters::KEY_SHARPNESS);
if((sharpness < CAMERA_MIN_SHARPNESS
|| sharpness > CAMERA_MAX_SHARPNESS))
return UNKNOWN_ERROR;
LOGV("setting sharpness %d", sharpness);
mParameters.set(CameraParameters::KEY_SHARPNESS, sharpness);
bool ret = native_set_parms(CAMERA_PARM_SHARPNESS, sizeof(sharpness),
(void *)&sharpness);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
status_t QualcommCameraHardware::setContrast(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_CONTRAST)) {
LOGI("Contrast not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_SCENE_MODE);
int32_t value = attr_lookup(scenemode, sizeof(scenemode) / sizeof(str_map), str);
if(value == CAMERA_BESTSHOT_OFF) {
int contrast = params.getInt(CameraParameters::KEY_CONTRAST);
if((contrast < CAMERA_MIN_CONTRAST)
|| (contrast > CAMERA_MAX_CONTRAST))
return UNKNOWN_ERROR;
LOGV("setting contrast %d", contrast);
mParameters.set(CameraParameters::KEY_CONTRAST, contrast);
bool ret = native_set_parms(CAMERA_PARM_CONTRAST, sizeof(contrast),
(void *)&contrast);
return ret ? NO_ERROR : UNKNOWN_ERROR;
} else {
LOGI(" Contrast value will not be set " \
"when the scenemode selected is %s", str);
return NO_ERROR;
}
}
status_t QualcommCameraHardware::setSaturation(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_SATURATION)) {
LOGI("Saturation not supported for this sensor");
return NO_ERROR;
}
int result;
int saturation = params.getInt(CameraParameters::KEY_SATURATION);
if((saturation < CAMERA_MIN_SATURATION)
|| (saturation > CAMERA_MAX_SATURATION))
return UNKNOWN_ERROR;
LOGV("Setting saturation %d", saturation);
mParameters.set(CameraParameters::KEY_SATURATION, saturation);
bool ret = native_set_parms(CAMERA_PARM_SATURATION, sizeof(saturation),
(void *)&saturation, (int *)&result);
if(result == MM_CAMERA_ERR_INVALID_OPERATION)
LOGI("Saturation Value: %d is not set as the selected value is not supported", saturation);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
status_t QualcommCameraHardware::setPreviewFormat(const CameraParameters& params) {
const char *str = params.getPreviewFormat();
int32_t previewFormat = attr_lookup(preview_formats, sizeof(preview_formats) / sizeof(str_map), str);
if(previewFormat != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_PREVIEW_FORMAT, str);
mPreviewFormat = previewFormat;
return NO_ERROR;
}
LOGE("Invalid preview format value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setStrTextures(const CameraParameters& params) {
const char *str = params.get("strtextures");
if(str != NULL) {
LOGV("strtextures = %s", str);
mParameters.set("strtextures", str);
if(!strncmp(str, "on", 2) || !strncmp(str, "ON", 2)) {
LOGI("Resetting mUseOverlay to false");
strTexturesOn = true;
mUseOverlay = false;
} else if (!strncmp(str, "off", 3) || !strncmp(str, "OFF", 3)) {
strTexturesOn = false;
if((mCurrentTarget == TARGET_MSM7630) || (mCurrentTarget == TARGET_MSM8660))
mUseOverlay = true;
}
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setBrightness(const CameraParameters& params) {
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_BRIGHTNESS)) {
LOGI("Set Brightness not supported for this sensor");
return NO_ERROR;
}
int brightness = params.getInt("luma-adaptation");
if (mBrightness != brightness) {
LOGV(" new brightness value : %d ", brightness);
mBrightness = brightness;
bool ret = native_set_parms(CAMERA_PARM_BRIGHTNESS, sizeof(mBrightness),
(void *)&mBrightness);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setSkinToneEnhancement(const CameraParameters& params) {
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_SCE_FACTOR)) {
LOGI("SkinToneEnhancement not supported for this sensor");
return NO_ERROR;
}
int skinToneValue = params.getInt("skinToneEnhancement");
if (mSkinToneEnhancement != skinToneValue) {
LOGV(" new skinTone correction value : %d ", skinToneValue);
mSkinToneEnhancement = skinToneValue;
mParameters.set("skinToneEnhancement", skinToneValue);
bool ret = native_set_parms(CAMERA_PARM_SCE_FACTOR, sizeof(mSkinToneEnhancement),
(void *)&mSkinToneEnhancement);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setWhiteBalance(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_WHITE_BALANCE)) {
LOGI("WhiteBalance not supported for this sensor");
return NO_ERROR;
}
int result;
const char *str = params.get(CameraParameters::KEY_WHITE_BALANCE);
if (str != NULL) {
int32_t value = attr_lookup(whitebalance, sizeof(whitebalance) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_WHITE_BALANCE, str);
bool ret = native_set_parms(CAMERA_PARM_WHITE_BALANCE, sizeof(value),
(void *)&value, (int *)&result);
if(result == MM_CAMERA_ERR_INVALID_OPERATION) {
LOGI("WhiteBalance Value: %s is not set as the selected value is not supported ", str);
}
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid whitebalance value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setFlash(const CameraParameters& params)
{
if (!mSensorInfo.flash_enabled) {
LOGI("%s: flash not supported", __FUNCTION__);
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_FLASH_MODE);
if (str != NULL) {
int32_t value = attr_lookup(flash, sizeof(flash) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_FLASH_MODE, str);
bool ret = native_set_parms(CAMERA_PARM_LED_MODE,
sizeof(value), (void *)&value);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid flash mode value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setAntibanding(const CameraParameters& params)
{ int result;
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_ANTIBANDING)) {
LOGI("Parameter AntiBanding is not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_ANTIBANDING);
if (str != NULL) {
int value = (camera_antibanding_type)attr_lookup(
antibanding, sizeof(antibanding) / sizeof(str_map), str);
if (value != NOT_FOUND) {
camera_antibanding_type temp = (camera_antibanding_type) value;
mParameters.set(CameraParameters::KEY_ANTIBANDING, str);
bool ret = native_set_parms(CAMERA_PARM_ANTIBANDING,
sizeof(camera_antibanding_type), (void *)&temp ,(int *)&result);
if(result == MM_CAMERA_ERR_INVALID_OPERATION) {
LOGI("AntiBanding Value: %s is not supported for the given BestShot Mode", str);
}
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid antibanding value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setLensshadeValue(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_ROLLOFF)) {
LOGI("Parameter Rolloff is not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_LENSSHADE);
if (str != NULL) {
int value = attr_lookup(lensshade,
sizeof(lensshade) / sizeof(str_map), str);
if (value != NOT_FOUND) {
int8_t temp = (int8_t)value;
mParameters.set(CameraParameters::KEY_LENSSHADE, str);
native_set_parms(CAMERA_PARM_ROLLOFF, sizeof(int8_t), (void *)&temp);
return NO_ERROR;
}
}
LOGE("Invalid lensShade value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setContinuousAf(const CameraParameters& params)
{
if(mHasAutoFocusSupport){
const char *str = params.get(CameraParameters::KEY_CONTINUOUS_AF);
if (str != NULL) {
int value = attr_lookup(continuous_af,
sizeof(continuous_af) / sizeof(str_map), str);
if (value != NOT_FOUND) {
int8_t temp = (int8_t)value;
mParameters.set(CameraParameters::KEY_CONTINUOUS_AF, str);
native_set_parms(CAMERA_PARM_CONTINUOUS_AF, sizeof(int8_t), (void *)&temp);
return NO_ERROR;
}
}
LOGE("Invalid continuous Af value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setSelectableZoneAf(const CameraParameters& params)
{
if(mHasAutoFocusSupport && supportsSelectableZoneAf()) {
const char *str = params.get(CameraParameters::KEY_SELECTABLE_ZONE_AF);
if (str != NULL) {
int32_t value = attr_lookup(selectable_zone_af, sizeof(selectable_zone_af) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_SELECTABLE_ZONE_AF, str);
bool ret = native_set_parms(CAMERA_PARM_FOCUS_RECT, sizeof(value),
(void *)&value);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid selectable zone af value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setTouchAfAec(const CameraParameters& params)
{
if(mHasAutoFocusSupport){
int xAec, yAec, xAf, yAf;
params.getTouchIndexAec(&xAec, &yAec);
params.getTouchIndexAf(&xAf, &yAf);
const char *str = params.get(CameraParameters::KEY_TOUCH_AF_AEC);
if (str != NULL) {
int value = attr_lookup(touchafaec,
sizeof(touchafaec) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_TOUCH_AF_AEC, str);
mParameters.setTouchIndexAec(xAec, yAec);
mParameters.setTouchIndexAf(xAf, yAf);
cam_set_aec_roi_t aec_roi_value;
roi_info_t af_roi_value;
memset(&af_roi_value, 0, sizeof(roi_info_t));
//If touch AF/AEC is enabled and touch event has occured then
//call the ioctl with valid values.
if (value == true
&& (xAec >= 0 && yAec >= 0)
&& (xAf >= 0 && yAf >= 0)) {
//Set Touch AEC params (Pass the center co-ordinate)
aec_roi_value.aec_roi_enable = AEC_ROI_ON;
aec_roi_value.aec_roi_type = AEC_ROI_BY_COORDINATE;
aec_roi_value.aec_roi_position.coordinate.x = xAec;
aec_roi_value.aec_roi_position.coordinate.y = yAec;
//Set Touch AF params (Pass the top left co-ordinate)
af_roi_value.num_roi = 1;
if ((xAf-50) < 0)
af_roi_value.roi[0].x = 1;
else
af_roi_value.roi[0].x = xAf - (FOCUS_RECTANGLE_DX/2);
if ((yAf-50) < 0)
af_roi_value.roi[0].y = 1;
else
af_roi_value.roi[0].y = yAf - (FOCUS_RECTANGLE_DY/2);
af_roi_value.roi[0].dx = FOCUS_RECTANGLE_DX;
af_roi_value.roi[0].dy = FOCUS_RECTANGLE_DY;
}
else {
//Set Touch AEC params
aec_roi_value.aec_roi_enable = AEC_ROI_OFF;
aec_roi_value.aec_roi_type = AEC_ROI_BY_COORDINATE;
aec_roi_value.aec_roi_position.coordinate.x = DONT_CARE_COORDINATE;
aec_roi_value.aec_roi_position.coordinate.y = DONT_CARE_COORDINATE;
//Set Touch AF params
af_roi_value.num_roi = 0;
}
native_set_parms(CAMERA_PARM_AEC_ROI, sizeof(cam_set_aec_roi_t), (void *)&aec_roi_value);
native_set_parms(CAMERA_PARM_AF_ROI, sizeof(roi_info_t), (void*)&af_roi_value);
}
return NO_ERROR;
}
LOGE("Invalid Touch AF/AEC value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setISOValue(const CameraParameters& params) {
int8_t temp_hjr;
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_ISO)) {
LOGE("Parameter ISO Value is not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_ISO_MODE);
if (str != NULL) {
int value = (camera_iso_mode_type)attr_lookup(
iso, sizeof(iso) / sizeof(str_map), str);
if (value != NOT_FOUND) {
camera_iso_mode_type temp = (camera_iso_mode_type) value;
if (value == CAMERA_ISO_DEBLUR) {
temp_hjr = true;
native_set_parms(CAMERA_PARM_HJR, sizeof(int8_t), (void*)&temp_hjr);
mHJR = value;
}
else {
if (mHJR == CAMERA_ISO_DEBLUR) {
temp_hjr = false;
native_set_parms(CAMERA_PARM_HJR, sizeof(int8_t), (void*)&temp_hjr);
mHJR = value;
}
}
mParameters.set(CameraParameters::KEY_ISO_MODE, str);
native_set_parms(CAMERA_PARM_ISO, sizeof(camera_iso_mode_type), (void *)&temp);
return NO_ERROR;
}
}
LOGE("Invalid Iso value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setSceneDetect(const CameraParameters& params)
{
bool retParm1, retParm2;
if (supportsSceneDetection()) {
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_BL_DETECTION) && !mCfgControl.mm_camera_is_supported(CAMERA_PARM_SNOW_DETECTION)) {
LOGE("Parameter Auto Scene Detection is not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_SCENE_DETECT);
if (str != NULL) {
int32_t value = attr_lookup(scenedetect, sizeof(scenedetect) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_SCENE_DETECT, str);
retParm1 = native_set_parms(CAMERA_PARM_BL_DETECTION, sizeof(value),
(void *)&value);
retParm2 = native_set_parms(CAMERA_PARM_SNOW_DETECTION, sizeof(value),
(void *)&value);
//All Auto Scene detection modes should be all ON or all OFF.
if(retParm1 == false || retParm2 == false) {
value = !value;
retParm1 = native_set_parms(CAMERA_PARM_BL_DETECTION, sizeof(value),
(void *)&value);
retParm2 = native_set_parms(CAMERA_PARM_SNOW_DETECTION, sizeof(value),
(void *)&value);
}
return (retParm1 && retParm2) ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid auto scene detection value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setSceneMode(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_BESTSHOT_MODE)) {
LOGE("Parameter Scenemode is not supported for this sensor");
return NO_ERROR;
}
const char *str = params.get(CameraParameters::KEY_SCENE_MODE);
if (str != NULL) {
int32_t value = attr_lookup(scenemode, sizeof(scenemode) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_SCENE_MODE, str);
bool ret = native_set_parms(CAMERA_PARM_BESTSHOT_MODE, sizeof(value),
(void *)&value);
return ret ? NO_ERROR : UNKNOWN_ERROR;
}
}
LOGE("Invalid scenemode value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setGpsLocation(const CameraParameters& params)
{
const char *method = params.get(CameraParameters::KEY_GPS_PROCESSING_METHOD);
if (method) {
mParameters.set(CameraParameters::KEY_GPS_PROCESSING_METHOD, method);
}
const char *latitude = params.get(CameraParameters::KEY_GPS_LATITUDE);
if (latitude) {
mParameters.set(CameraParameters::KEY_GPS_LATITUDE, latitude);
}
const char *latitudeRef = params.get(CameraParameters::KEY_GPS_LATITUDE_REF);
if (latitudeRef) {
mParameters.set(CameraParameters::KEY_GPS_LATITUDE_REF, latitudeRef);
}
const char *longitude = params.get(CameraParameters::KEY_GPS_LONGITUDE);
if (longitude) {
mParameters.set(CameraParameters::KEY_GPS_LONGITUDE, longitude);
}
const char *longitudeRef = params.get(CameraParameters::KEY_GPS_LONGITUDE_REF);
if (longitudeRef) {
mParameters.set(CameraParameters::KEY_GPS_LONGITUDE_REF, longitudeRef);
}
const char *altitudeRef = params.get(CameraParameters::KEY_GPS_ALTITUDE_REF);
if (altitudeRef) {
mParameters.set(CameraParameters::KEY_GPS_ALTITUDE_REF, altitudeRef);
}
const char *altitude = params.get(CameraParameters::KEY_GPS_ALTITUDE);
if (altitude) {
mParameters.set(CameraParameters::KEY_GPS_ALTITUDE, altitude);
}
const char *status = params.get(CameraParameters::KEY_GPS_STATUS);
if (status) {
mParameters.set(CameraParameters::KEY_GPS_STATUS, status);
}
const char *dateTime = params.get(CameraParameters::KEY_EXIF_DATETIME);
if (dateTime) {
mParameters.set(CameraParameters::KEY_EXIF_DATETIME, dateTime);
}
const char *timestamp = params.get(CameraParameters::KEY_GPS_TIMESTAMP);
if (timestamp) {
mParameters.set(CameraParameters::KEY_GPS_TIMESTAMP, timestamp);
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setRotation(const CameraParameters& params)
{
status_t rc = NO_ERROR;
int rotation = params.getInt(CameraParameters::KEY_ROTATION);
if (rotation != NOT_FOUND) {
if (rotation == 0 || rotation == 90 || rotation == 180
|| rotation == 270) {
mParameters.set(CameraParameters::KEY_ROTATION, rotation);
mRotation = rotation;
} else {
LOGE("Invalid rotation value: %d", rotation);
rc = BAD_VALUE;
}
}
return rc;
}
status_t QualcommCameraHardware::setZoom(const CameraParameters& params)
{
if(!mCfgControl.mm_camera_is_supported(CAMERA_PARM_ZOOM)) {
LOGE("Parameter setZoom is not supported for this sensor");
return NO_ERROR;
}
status_t rc = NO_ERROR;
// No matter how many different zoom values the driver can provide, HAL
// provides applictations the same number of zoom levels. The maximum driver
// zoom value depends on sensor output (VFE input) and preview size (VFE
// output) because VFE can only crop and cannot upscale. If the preview size
// is bigger, the maximum zoom ratio is smaller. However, we want the
// zoom ratio of each zoom level is always the same whatever the preview
// size is. Ex: zoom level 1 is always 1.2x, zoom level 2 is 1.44x, etc. So,
// we need to have a fixed maximum zoom value and do read it from the
// driver.
static const int ZOOM_STEP = 1;
int32_t zoom_level = params.getInt("zoom");
if(zoom_level >= 0 && zoom_level <= mMaxZoom-1) {
mParameters.set("zoom", zoom_level);
int32_t zoom_value = ZOOM_STEP * zoom_level;
bool ret = native_set_parms(CAMERA_PARM_ZOOM,
sizeof(zoom_value), (void *)&zoom_value);
rc = ret ? NO_ERROR : UNKNOWN_ERROR;
} else {
rc = BAD_VALUE;
}
return rc;
}
status_t QualcommCameraHardware::setFocusMode(const CameraParameters& params)
{
const char *str = params.get(CameraParameters::KEY_FOCUS_MODE);
if (str != NULL) {
int32_t value = attr_lookup(focus_modes,
sizeof(focus_modes) / sizeof(str_map), str);
if (value != NOT_FOUND) {
mParameters.set(CameraParameters::KEY_FOCUS_MODE, str);
// Focus step is reset to infinity when preview is started. We do
// not need to do anything now.
return NO_ERROR;
}
}
LOGE("Invalid focus mode value: %s", (str == NULL) ? "NULL" : str);
return BAD_VALUE;
}
status_t QualcommCameraHardware::setOrientation(const CameraParameters& params)
{
const char *str = params.get("orientation");
if (str != NULL) {
if (strcmp(str, "portrait") == 0 || strcmp(str, "landscape") == 0) {
// Camera service needs this to decide if the preview frames and raw
// pictures should be rotated.
mParameters.set("orientation", str);
} else {
LOGE("Invalid orientation value: %s", str);
return BAD_VALUE;
}
}
return NO_ERROR;
}
status_t QualcommCameraHardware::setPictureFormat(const CameraParameters& params)
{
const char * str = params.get(CameraParameters::KEY_PICTURE_FORMAT);
if(str != NULL){
int32_t value = attr_lookup(picture_formats,
sizeof(picture_formats) / sizeof(str_map), str);
if(value != NOT_FOUND){
mParameters.set(CameraParameters::KEY_PICTURE_FORMAT, str);
} else {
LOGE("Invalid Picture Format value: %s", str);
return BAD_VALUE;
}
}
return NO_ERROR;
}
QualcommCameraHardware::MemPool::MemPool(int buffer_size, int num_buffers,
int frame_size,
const char *name) :
mBufferSize(buffer_size),
mNumBuffers(num_buffers),
mFrameSize(frame_size),
mBuffers(NULL), mName(name)
{
int page_size_minus_1 = getpagesize() - 1;
mAlignedBufferSize = (buffer_size + page_size_minus_1) & (~page_size_minus_1);
}
void QualcommCameraHardware::MemPool::completeInitialization()
{
// If we do not know how big the frame will be, we wait to allocate
// the buffers describing the individual frames until we do know their
// size.
if (mFrameSize > 0) {
mBuffers = new sp<MemoryBase>[mNumBuffers];
for (int i = 0; i < mNumBuffers; i++) {
mBuffers[i] = new
MemoryBase(mHeap,
i * mAlignedBufferSize,
mFrameSize);
}
}
}
QualcommCameraHardware::AshmemPool::AshmemPool(int buffer_size, int num_buffers,
int frame_size,
const char *name) :
QualcommCameraHardware::MemPool(buffer_size,
num_buffers,
frame_size,
name)
{
LOGV("constructing MemPool %s backed by ashmem: "
"%d frames @ %d uint8_ts, "
"buffer size %d",
mName,
num_buffers, frame_size, buffer_size);
int page_mask = getpagesize() - 1;
int ashmem_size = buffer_size * num_buffers;
ashmem_size += page_mask;
ashmem_size &= ~page_mask;
mHeap = new MemoryHeapBase(ashmem_size);
completeInitialization();
}
static bool register_buf(int camfd,
int size,
int frame_size,
int cbcr_offset,
int yoffset,
int pmempreviewfd,
uint32_t offset,
uint8_t *buf,
int pmem_type,
bool vfe_can_write,
bool register_buffer = true);
QualcommCameraHardware::PmemPool::PmemPool(const char *pmem_pool,
int flags,
int camera_control_fd,
int pmem_type,
int buffer_size, int num_buffers,
int frame_size, int cbcr_offset,
int yOffset, const char *name) :
QualcommCameraHardware::MemPool(buffer_size,
num_buffers,
frame_size,
name),
mPmemType(pmem_type),
mCbCrOffset(cbcr_offset),
myOffset(yOffset),
mCameraControlFd(dup(camera_control_fd))
{
LOGI("constructing MemPool %s backed by pmem pool %s: "
"%d frames @ %d bytes, buffer size %d",
mName,
pmem_pool, num_buffers, frame_size,
buffer_size);
LOGV("%s: duplicating control fd %d --> %d",
__FUNCTION__,
camera_control_fd, mCameraControlFd);
// Make a new mmap'ed heap that can be shared across processes.
// mAlignedBufferSize is already in 4k aligned. (do we need total size necessary to be in power of 2??)
mAlignedSize = mAlignedBufferSize * num_buffers;
sp<MemoryHeapBase> masterHeap =
new MemoryHeapBase(pmem_pool, mAlignedSize, flags);
if (masterHeap->getHeapID() < 0) {
LOGE("failed to construct master heap for pmem pool %s", pmem_pool);
masterHeap.clear();
return;
}
sp<MemoryHeapPmem> pmemHeap = new MemoryHeapPmem(masterHeap, flags);
if (pmemHeap->getHeapID() >= 0) {
pmemHeap->slap();
masterHeap.clear();
mHeap = pmemHeap;
pmemHeap.clear();
mFd = mHeap->getHeapID();
if (::ioctl(mFd, PMEM_GET_SIZE, &mSize)) {
LOGE("pmem pool %s ioctl(PMEM_GET_SIZE) error %s (%d)",
pmem_pool,
::strerror(errno), errno);
mHeap.clear();
return;
}
LOGV("pmem pool %s ioctl(fd = %d, PMEM_GET_SIZE) is %ld",
pmem_pool,
mFd,
mSize.len);
LOGD("mBufferSize=%d, mAlignedBufferSize=%d\n", mBufferSize, mAlignedBufferSize);
// Unregister preview buffers with the camera drivers. Allow the VFE to write
// to all preview buffers except for the last one.
// Only Register the preview, snapshot and thumbnail buffers with the kernel.
if( (strcmp("postview", mName) != 0) ){
int num_buf = num_buffers;
if(!strcmp("preview", mName)) num_buf = kPreviewBufferCount;
LOGD("num_buffers = %d", num_buf);
for (int cnt = 0; cnt < num_buf; ++cnt) {
int active = 1;
if(pmem_type == MSM_PMEM_VIDEO){
active = (cnt<ACTIVE_VIDEO_BUFFERS);
//When VPE is enabled, set the last record
//buffer as active and pmem type as PMEM_VIDEO_VPE
//as this is a requirement from VPE operation.
//No need to set this pmem type to VIDEO_VPE while unregistering,
//because as per camera stack design: "the VPE AXI is also configured
//when VFE is configured for VIDEO, which is as part of preview
//initialization/start. So during this VPE AXI config camera stack
//will lookup the PMEM_VIDEO_VPE buffer and give it as o/p of VPE and
//change it's type to PMEM_VIDEO".
if( (mVpeEnabled) && (cnt == kRecordBufferCount-1)) {
active = 1;
pmem_type = MSM_PMEM_VIDEO_VPE;
}
LOGV(" pmempool creating video buffers : active %d ", active);
}
else if (pmem_type == MSM_PMEM_PREVIEW){
active = (cnt < (num_buf-1));
}
register_buf(mCameraControlFd,
mBufferSize,
mFrameSize, mCbCrOffset, myOffset,
mHeap->getHeapID(),
mAlignedBufferSize * cnt,
(uint8_t *)mHeap->base() + mAlignedBufferSize * cnt,
pmem_type,
active);
}
}
completeInitialization();
}
else LOGE("pmem pool %s error: could not create master heap!",
pmem_pool);
LOGI("%s: (%s) X ", __FUNCTION__, mName);
}
QualcommCameraHardware::PmemPool::~PmemPool()
{
LOGI("%s: %s E", __FUNCTION__, mName);
if (mHeap != NULL) {
// Unregister preview buffers with the camera drivers.
// Only Unregister the preview, snapshot and thumbnail
// buffers with the kernel.
if( (strcmp("postview", mName) != 0) ){
int num_buffers = mNumBuffers;
if(!strcmp("preview", mName)) num_buffers = kPreviewBufferCount;
for (int cnt = 0; cnt < num_buffers; ++cnt) {
register_buf(mCameraControlFd,
mBufferSize,
mFrameSize,
mCbCrOffset,
myOffset,
mHeap->getHeapID(),
mAlignedBufferSize * cnt,
(uint8_t *)mHeap->base() + mAlignedBufferSize * cnt,
mPmemType,
false,
false /* unregister */);
}
}
}
LOGV("destroying PmemPool %s: closing control fd %d",
mName,
mCameraControlFd);
close(mCameraControlFd);
LOGI("%s: %s X", __FUNCTION__, mName);
}
QualcommCameraHardware::MemPool::~MemPool()
{
LOGV("destroying MemPool %s", mName);
if (mFrameSize > 0)
delete [] mBuffers;
mHeap.clear();
LOGV("destroying MemPool %s completed", mName);
}
static bool register_buf(int camfd,
int size,
int frame_size,
int cbcr_offset,
int yoffset,
int pmempreviewfd,
uint32_t offset,
uint8_t *buf,
int pmem_type,
bool vfe_can_write,
bool register_buffer)
{
struct msm_pmem_info pmemBuf;
pmemBuf.type = pmem_type;
pmemBuf.fd = pmempreviewfd;
pmemBuf.offset = offset;
pmemBuf.len = size;
pmemBuf.vaddr = buf;
pmemBuf.y_off = yoffset;
pmemBuf.cbcr_off = cbcr_offset;
pmemBuf.active = vfe_can_write;
LOGV("register_buf: camfd = %d, reg = %d buffer = %p",
camfd, !register_buffer, buf);
if(native_start_ops(register_buffer ? CAMERA_OPS_REGISTER_BUFFER :
CAMERA_OPS_UNREGISTER_BUFFER ,(void *)&pmemBuf) < 0) {
LOGE("register_buf: MSM_CAM_IOCTL_(UN)REGISTER_PMEM fd %d error %s",
camfd,
strerror(errno));
return false;
}
return true;
}
status_t QualcommCameraHardware::MemPool::dump(int fd, const Vector<String16>& args) const
{
const size_t SIZE = 256;
char buffer[SIZE];
String8 result;
snprintf(buffer, 255, "QualcommCameraHardware::AshmemPool::dump\n");
result.append(buffer);
if (mName) {
snprintf(buffer, 255, "mem pool name (%s)\n", mName);
result.append(buffer);
}
if (mHeap != 0) {
snprintf(buffer, 255, "heap base(%p), size(%d), flags(%d), device(%s)\n",
mHeap->getBase(), mHeap->getSize(),
mHeap->getFlags(), mHeap->getDevice());
result.append(buffer);
}
snprintf(buffer, 255,
"buffer size (%d), number of buffers (%d), frame size(%d)",
mBufferSize, mNumBuffers, mFrameSize);
result.append(buffer);
write(fd, result.string(), result.size());
return NO_ERROR;
}
static void receive_camframe_callback(struct msm_frame *frame)
{
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receivePreviewFrame(frame);
}
}
static void receive_camstats_callback(camstats_type stype, camera_preview_histogram_info* histinfo)
{
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receiveCameraStats(stype,histinfo);
}
}
static void receive_liveshot_callback(liveshot_status status, uint32_t jpeg_size)
{
if(status == LIVESHOT_SUCCESS) {
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receiveLiveSnapshot(jpeg_size);
}
}
else
LOGE("Liveshot not succesful");
}
static void receive_jpeg_fragment_callback(uint8_t *buff_ptr, uint32_t buff_size)
{
LOGV("receive_jpeg_fragment_callback E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receiveJpegPictureFragment(buff_ptr, buff_size);
}
LOGV("receive_jpeg_fragment_callback X");
}
static void receive_jpeg_callback(jpeg_event_t status)
{
LOGV("receive_jpeg_callback E (completion status %d)", status);
if (status == JPEG_EVENT_DONE) {
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receiveJpegPicture();
}
}
LOGV("receive_jpeg_callback X");
}
// 720p : video frame calbback from camframe
static void receive_camframe_video_callback(struct msm_frame *frame)
{
LOGV("receive_camframe_video_callback E");
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
obj->receiveRecordingFrame(frame);
}
LOGV("receive_camframe_video_callback X");
}
void QualcommCameraHardware::setCallbacks(notify_callback notify_cb,
data_callback data_cb,
data_callback_timestamp data_cb_timestamp,
void* user)
{
Mutex::Autolock lock(mLock);
mNotifyCallback = notify_cb;
mDataCallback = data_cb;
mDataCallbackTimestamp = data_cb_timestamp;
mCallbackCookie = user;
}
void QualcommCameraHardware::enableMsgType(int32_t msgType)
{
Mutex::Autolock lock(mLock);
mMsgEnabled |= msgType;
}
void QualcommCameraHardware::disableMsgType(int32_t msgType)
{
Mutex::Autolock lock(mLock);
mMsgEnabled &= ~msgType;
}
bool QualcommCameraHardware::msgTypeEnabled(int32_t msgType)
{
return (mMsgEnabled & msgType);
}
bool QualcommCameraHardware::useOverlay(void)
{
if((mCurrentTarget == TARGET_MSM7630) || (mCurrentTarget == TARGET_MSM8660)) {
/* 7x30 and 8x60 supports Overlay */
mUseOverlay = TRUE;
} else
mUseOverlay = FALSE;
LOGV(" Using Overlay : %s ", mUseOverlay ? "YES" : "NO" );
return mUseOverlay;
}
status_t QualcommCameraHardware::setOverlay(const sp<Overlay> &Overlay)
{
if( Overlay != NULL) {
LOGV(" Valid overlay object ");
mOverlayLock.lock();
mOverlay = Overlay;
mOverlayLock.unlock();
} else {
LOGV(" Overlay object NULL. returning ");
mOverlay = NULL;
return UNKNOWN_ERROR;
}
return NO_ERROR;
}
void QualcommCameraHardware::receive_camframe_error_timeout(void) {
LOGI("receive_camframe_error_timeout: E");
Mutex::Autolock l(&mCamframeTimeoutLock);
LOGE(" Camframe timed out. Not receiving any frames from camera driver ");
camframe_timeout_flag = TRUE;
mNotifyCallback(CAMERA_MSG_ERROR, CAMERA_ERROR_UKNOWN, 0,
mCallbackCookie);
LOGI("receive_camframe_error_timeout: X");
}
static void receive_camframe_error_callback(camera_error_type err) {
sp<QualcommCameraHardware> obj = QualcommCameraHardware::getInstance();
if (obj != 0) {
if ((err == CAMERA_ERROR_TIMEOUT) ||
(err == CAMERA_ERROR_ESD)) {
/* Handling different error types is dependent on the requirement.
* Do the same action by default
*/
obj->receive_camframe_error_timeout();
}
}
}
bool QualcommCameraHardware::storePreviewFrameForPostview(void) {
LOGV("storePreviewFrameForPostview : E ");
/* Since there is restriction on the maximum overlay dimensions
* that can be created, we use the last preview frame as postview
* for 7x30. */
LOGV("Copying the preview buffer to postview buffer %d ",
mPreviewFrameSize);
if(mPostViewHeap == NULL) {
int CbCrOffset = PAD_TO_WORD(mPreviewFrameSize * 2/3);
mPostViewHeap =
new PmemPool("/dev/pmem_adsp",
MemoryHeapBase::READ_ONLY | MemoryHeapBase::NO_CACHING,
mCameraControlFd,
MSM_PMEM_PREVIEW, //MSM_PMEM_OUTPUT2,
mPreviewFrameSize,
1,
mPreviewFrameSize,
CbCrOffset,
0,
"postview");
if (!mPostViewHeap->initialized()) {
mPostViewHeap.clear();
LOGE(" Failed to initialize Postview Heap");
return false;
}
}
if( mPostViewHeap != NULL && mLastQueuedFrame != NULL) {
memcpy(mPostViewHeap->mHeap->base(),
(uint8_t *)mLastQueuedFrame, mPreviewFrameSize );
if( mUseOverlay && (mOverlay != NULL)){
mOverlay->setFd(mPostViewHeap->mHeap->getHeapID());
if( zoomCropInfo.w !=0 && zoomCropInfo.h !=0) {
LOGD("zoomCropInfo non-zero, setting crop ");
mOverlay->setCrop(zoomCropInfo.x, zoomCropInfo.y,
zoomCropInfo.w, zoomCropInfo.h);
}
LOGV("Queueing Postview with last frame till the snapshot is done ");
mOverlay->queueBuffer((void *)0);
}
} else
LOGE("Failed to store Preview frame. No Postview ");
LOGV("storePreviewFrameForPostview : X ");
return true;
}
bool QualcommCameraHardware::isValidDimension(int width, int height) {
bool retVal = FALSE;
/* This function checks if a given resolution is valid or not.
* A particular resolution is considered valid if it satisfies
* the following conditions:
* 1. width & height should be multiple of 16.
* 2. width & height should be less than/equal to the dimensions
* supported by the camera sensor.
* 3. the aspect ratio is a valid aspect ratio and is among the
* commonly used aspect ratio as determined by the thumbnail_sizes
* data structure.
*/
if( (width == CEILING16(width)) && (height == CEILING16(height))
&& (width <= sensorType->max_supported_snapshot_width)
&& (height <= sensorType->max_supported_snapshot_height) )
{
uint32_t pictureAspectRatio = (uint32_t)((width * Q12)/height);
for(uint32_t i = 0; i < THUMBNAIL_SIZE_COUNT; i++ ) {
if(thumbnail_sizes[i].aspect_ratio == pictureAspectRatio) {
retVal = TRUE;
break;
}
}
}
return retVal;
}
status_t QualcommCameraHardware::getBufferInfo(sp<IMemory>& Frame, size_t *alignedSize) {
status_t ret;
LOGV(" getBufferInfo : E ");
if( ( mCurrentTarget == TARGET_MSM7630 ) || (mCurrentTarget == TARGET_QSD8250) || (mCurrentTarget == TARGET_MSM8660) )
{
if( mRecordHeap != NULL){
LOGV(" Setting valid buffer information ");
Frame = mRecordHeap->mBuffers[0];
if( alignedSize != NULL) {
*alignedSize = mRecordHeap->mAlignedBufferSize;
LOGV(" HAL : alignedSize = %d ", *alignedSize);
ret = NO_ERROR;
} else {
LOGE(" HAL : alignedSize is NULL. Cannot update alignedSize ");
ret = UNKNOWN_ERROR;
}
} else {
LOGE(" RecordHeap is null. Buffer information wont be updated ");
Frame = NULL;
ret = UNKNOWN_ERROR;
}
} else {
if(mPreviewHeap != NULL) {
LOGV(" Setting valid buffer information ");
Frame = mPreviewHeap->mBuffers[0];
if( alignedSize != NULL) {
*alignedSize = mPreviewHeap->mAlignedBufferSize;
LOGV(" HAL : alignedSize = %d ", *alignedSize);
ret = NO_ERROR;
} else {
LOGE(" HAL : alignedSize is NULL. Cannot update alignedSize ");
ret = UNKNOWN_ERROR;
}
} else {
LOGE(" PreviewHeap is null. Buffer information wont be updated ");
Frame = NULL;
ret = UNKNOWN_ERROR;
}
}
LOGV(" getBufferInfo : X ");
return ret;
}
void QualcommCameraHardware::encodeData() {
LOGV("encodeData: E");
if (mDataCallback && (mMsgEnabled & CAMERA_MSG_COMPRESSED_IMAGE)) {
mJpegSize = 0;
mJpegThreadWaitLock.lock();
if (LINK_jpeg_encoder_init()) {
mJpegThreadRunning = true;
mJpegThreadWaitLock.unlock();
if(native_jpeg_encode()) {
LOGV("encodeData: X (success)");
//Wait until jpeg encoding is done and call jpeg join
//in this context. Also clear the resources.
mJpegThreadWaitLock.lock();
while (mJpegThreadRunning) {
LOGV("encodeData: waiting for jpeg thread to complete.");
mJpegThreadWait.wait(mJpegThreadWaitLock);
LOGV("encodeData: jpeg thread completed.");
}
mJpegThreadWaitLock.unlock();
//Call jpeg join in this thread context
LINK_jpeg_encoder_join();
}
LOGE("encodeData: jpeg encoding failed");
}
else {
LOGE("encodeData X: jpeg_encoder_init failed.");
mJpegThreadWaitLock.unlock();
}
}
else LOGV("encodeData: JPEG callback is NULL, not encoding image.");
//clear the resources
deinitRaw();
//Encoding is done.
mEncodePendingWaitLock.lock();
mEncodePending = false;
mEncodePendingWait.signal();
mEncodePendingWaitLock.unlock();
LOGV("encodeData: X");
}
}; // namespace android